diff --git a/lib/interface/picassoProcV3.m b/lib/interface/picassoProcV3.m
index 70f022b6..377e5cad 100644
--- a/lib/interface/picassoProcV3.m
+++ b/lib/interface/picassoProcV3.m
@@ -3289,17 +3289,83 @@
 print_msg('Finish.\n', 'flagTimestamp', true);
 
 %% POLIPHON (2-step)
-[data.POLIPHON2] = poliphon_two ...
-    (data.aerBsc355_klett, data.pdr355_klett, ...
-    data.aerBsc532_klett, data.pdr532_klett, data.aerBsc1064_klett, data.pdr1064_klett,...
-    data.aerBsc355_raman, data.pdr355_raman, data.aerBsc532_raman, data.pdr532_raman,...
-    data.aerBsc1064_raman, data.pdr1064_raman);
+[data.POLIPHON2] = poliphon_two( ...
+    data.aerBsc355_klett, data.pdr355_klett, ... 
+    data.aerBsc532_klett, data.pdr532_klett, ...
+    data.aerBsc1064_klett, data.pdr1064_klett, ... 
+    data.aerBsc355_raman, data.pdr355_raman, ... 
+    data.aerBsc532_raman, data.pdr532_raman, ... 
+    data.aerBsc1064_raman, data.pdr1064_raman, ...
+    data.POLIPHON1.aerBsc355_klett_d1, data.POLIPHON1.aerBsc355_klett_nd1, ... 
+    data.POLIPHON1.aerBsc532_klett_d1, data.POLIPHON1.aerBsc532_klett_nd1, ... 
+    data.POLIPHON1.aerBsc1064_klett_d1, data.POLIPHON1.aerBsc1064_klett_nd1, ... 
+    data.POLIPHON1.aerBsc355_raman_d1, data.POLIPHON1.aerBsc355_raman_nd1, ... 
+    data.POLIPHON1.aerBsc532_raman_d1, data.POLIPHON1.aerBsc532_raman_nd1, ... 
+    data.POLIPHON1.aerBsc1064_raman_d1, data.POLIPHON1.aerBsc1064_raman_nd1, ... 
+    data.POLIPHON1.err_aerBsc355_klett_d1, data.POLIPHON1.err_aerBsc355_klett_nd1, ... 
+    data.POLIPHON1.err_aerBsc532_klett_d1, data.POLIPHON1.err_aerBsc532_klett_nd1, ... 
+    data.POLIPHON1.err_aerBsc1064_klett_d1, data.POLIPHON1.err_aerBsc1064_klett_nd1, ... 
+    data.POLIPHON1.err_aerBsc355_raman_d1, data.POLIPHON1.err_aerBsc355_raman_nd1, ... 
+    data.POLIPHON1.err_aerBsc532_raman_d1, data.POLIPHON1.err_aerBsc532_raman_nd1, ... 
+    data.POLIPHON1.err_aerBsc1064_raman_d1, data.POLIPHON1.err_aerBsc1064_raman_nd1, ... 
+    data.temperature, data.pressure); 
 
 print_msg('Finish. \n', 'flagTimestamp', true);
 
+% plotting CCN for 532nm
+figure; 
+hold on; 
+
+plot(data.POLIPHON2.n_ccn_raman_532, data.height.', 'r--', 'LineWidth', 1.5, 'DisplayName', 'Total CCN (only d+m)');
+plot(data.POLIPHON2.n_ccn_d_raman_532 + data.POLIPHON2.n_ccn_bb_raman_532, data.height.', 'b--', 'LineWidth', 1.5, 'DisplayName', 'Total CCN (only d+bb)');
+plot(data.POLIPHON2.n_ccn_d_raman_532, data.height.', 'k', 'LineWidth', 1.5, 'DisplayName', 'Dust CCN');
+plot(data.POLIPHON2.n_ccn_m_raman_532, data.height.', 'b-', 'LineWidth', 1.5, 'DisplayName', 'Marine CCN');
+plot(data.POLIPHON2.n_ccn_c_raman_532, data.height.', 'Color', [0.5 0.5 0.5], 'LineWidth', 1.5, 'DisplayName', 'Continental CCN');
+plot(data.POLIPHON2.n_ccn_bb_raman_532, data.height.', 'g-', 'LineWidth', 1.5, 'DisplayName', 'Biomass Burning CCN');
+plot(data.POLIPHON2.n_ccn_vsf_raman_532, data.height.', 'm-', 'LineWidth', 1.5, 'DisplayName', 'Fresh Volcanic Sulfate CCN');
+plot(data.POLIPHON2.n_ccn_vsa_raman_532, data.height.', 'c-', 'LineWidth', 1.5, 'DisplayName', 'Aged Volcanic Sulfate CCN');
+
+hold off;
+xlabel('CCN Concentration (cm^{-3})');
+ylabel('Height (m)');
+title('CCN Profiles at 532 nm (raman)');
+legend('Location', 'best'); 
+grid on;
+
+xlabel('CCN Concentration (cm^{-3})')
+ylabel('Height (m)')
+
+ylim([0, 7000]);
+xlim([0, 1300])
+
+
+% plotting INP
+figure; 
+hold on; 
+
+plot(data.POLIPHON2.n_inp_d_d10_raman_532, data.height.', 'k', 'LineWidth', 1.5, 'DisplayName', 'Dust INP'); % (heights, wavelengths, temperatures)
+plot(data.POLIPHON2.n_inp_m_d10_raman_532, data.height.', 'b-', 'LineWidth', 1.5, 'DisplayName', 'Marine INP');
+plot(data.POLIPHON2.n_inp_c_d10_raman_532, data.height.', 'Color', [0.5 0.5 0.5], 'LineWidth', 1.5, 'DisplayName', 'Continental INP');
+plot(data.POLIPHON2.n_inp_bb_d10_raman_532, data.height.', 'g-', 'LineWidth', 1.5, 'DisplayName', 'Biomass Burning Smoke INP');
+plot(data.POLIPHON2.n_inp_vsf_d10_raman_532, data.height.', 'm-', 'LineWidth', 1.5, 'DisplayName', 'Fresh Volcanic Sulfate INP');
+plot(data.POLIPHON2.n_inp_vsa_d10_raman_532, data.height.', 'c-', 'LineWidth', 1.5, 'DisplayName', 'Aged Volcanic Sulfate INP');
+
+hold off;
+xlabel('INP Concentration (L^{-1})');
+ylabel('Height (m)');
+title('INP Profiles at 532 nm after DeMott 2010 (raman)');
+legend('Location', 'best'); 
+grid on;
+
+xlabel('CCN Concentration (cm^{-3})')
+ylabel('Height (m)')
+
+ylim([0, 7000]);
+xlim([0, 0.03]);
+
 
 %% Signal status
-data.SNR = NaN(size(data.signal));
+    data.SNR = NaN(size(data.signal));
 for iCh = 1:size(data.signal, 1)
     signal_sm = smooth2(squeeze(data.signal(iCh, :, :)), PollyConfig.quasi_smooth_h(iCh), PollyConfig.quasi_smooth_t(iCh));
     signal_int = signal_sm * (PollyConfig.quasi_smooth_h(iCh) * PollyConfig.quasi_smooth_t(iCh));
diff --git a/lib/io/pollySavePOLIPHON2.m b/lib/io/pollySavePOLIPHON2.m
index db48d25c..8c336c93 100644
--- a/lib/io/pollySavePOLIPHON2.m
+++ b/lib/io/pollySavePOLIPHON2.m
@@ -15,1068 +15,5581 @@ function pollySavePOLIPHON2(data, POLIPHON2)
 missing_value = -999;
 
 for iGrp = 1:size(data.clFreGrps, 1)
-ncFile = fullfile(PicassoConfig.results_folder, CampaignConfig.name, datestr(data.mTime(1), 'yyyy'), datestr(data.mTime(1), 'mm'), datestr(data.mTime(1), 'dd'), sprintf('%s_%s_%s_POLIPHON_2.nc', rmext(PollyDataInfo.pollyDataFile), datestr(data.mTime(data.clFreGrps(iGrp, 1)), 'HHMM'), datestr(data.mTime(data.clFreGrps(iGrp, 2)), 'HHMM')));
+ncFile_raman = fullfile(PicassoConfig.results_folder, CampaignConfig.name, datestr(data.mTime(1), 'yyyy'), datestr(data.mTime(1), 'mm'), datestr(data.mTime(1), 'dd'), sprintf('%s_%s_%s_POLIPHON_2_raman.nc', rmext(PollyDataInfo.pollyDataFile), datestr(data.mTime(data.clFreGrps(iGrp, 1)), 'HHMM'), datestr(data.mTime(data.clFreGrps(iGrp, 2)), 'HHMM')));
+ncFile_klett = fullfile(PicassoConfig.results_folder, CampaignConfig.name, datestr(data.mTime(1), 'yyyy'), datestr(data.mTime(1), 'mm'), datestr(data.mTime(1), 'dd'), sprintf('%s_%s_%s_POLIPHON_2_klett.nc', rmext(PollyDataInfo.pollyDataFile), datestr(data.mTime(data.clFreGrps(iGrp, 1)), 'HHMM'), datestr(data.mTime(data.clFreGrps(iGrp, 2)), 'HHMM')));
 startTime = data.mTime(data.clFreGrps(iGrp, 1));
 endTime = data.mTime(data.clFreGrps(iGrp, 2));
 
 mode = netcdf.getConstant('NETCDF4');
-mode = bitor(mode, netcdf.getConstant('CLASSIC_MODEL'));
+%mode = bitor(mode, netcdf.getConstant('CLASSIC_MODEL'));
 mode = bitor(mode, netcdf.getConstant('CLOBBER'));
-ncID = netcdf.create(ncFile, mode);
+ncID_raman = netcdf.create(ncFile_raman, mode);
+ncID_klett = netcdf.create(ncFile_klett, mode);
 
 % define dimensions
-dimID_height = netcdf.defDim(ncID, 'height', length(data.height));
-dimID_method = netcdf.defDim(ncID, 'method', 1);
-dimID_time = netcdf.defDim(ncID, 'time', length(data.mTime));
+dimID_height_raman = netcdf.defDim(ncID_raman, 'height', length(data.height));
+dimID_method_raman = netcdf.defDim(ncID_raman, 'method', 1);
+dimID_time_raman = netcdf.defDim(ncID_raman, 'time', length(data.mTime));
 
-% define variables
-varID_altitude  = netcdf.defVar(ncID, 'altitude', 'NC_FLOAT', dimID_method);
-varID_longitude = netcdf.defVar(ncID, 'longitude', 'NC_FLOAT', dimID_method);
-varID_latitude  = netcdf.defVar(ncID, 'latitude', 'NC_FLOAT', dimID_method);
-varID_startTime = netcdf.defVar(ncID, 'start_time', 'NC_DOUBLE', dimID_method);
-varID_endTime   = netcdf.defVar(ncID, 'end_time', 'NC_DOUBLE', dimID_method);
-varID_height    = netcdf.defVar(ncID, 'height', 'NC_FLOAT', dimID_height);
-varID_time      = netcdf.defVar(ncID, 'time', 'NC_DOUBLE', dimID_time);
-
-varID_beta_dc      = netcdf.defVar(ncID, 'beta_dc', 'NC_FLOAT', dimID_height);
-%% total?
-varID_aerBsc_klett_355     = netcdf.defVar(ncID, 'aerBsc_klett_355', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_klett_355  = netcdf.defVar(ncID, 'uncertainty_aerBsc_klett_355', 'NC_FLOAT', dimID_height);
-varID_aerBsc_klett_532     = netcdf.defVar(ncID, 'aerBsc_klett_532', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_klett_532  = netcdf.defVar(ncID, 'uncertainty_aerBsc_klett_532', 'NC_FLOAT', dimID_height);
-varID_aerBsc_klett_1064    = netcdf.defVar(ncID, 'aerBsc_klett_1064', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_klett_1064 = netcdf.defVar(ncID, 'uncertainty_aerBsc_klett_1064', 'NC_FLOAT', dimID_height);
-
-varID_aerBsc_raman_355     = netcdf.defVar(ncID, 'aerBsc_raman_355', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_raman_355  = netcdf.defVar(ncID, 'uncertainty_aerBsc_raman_355', 'NC_FLOAT', dimID_height);
-varID_aerBsc_raman_532     = netcdf.defVar(ncID, 'aerBsc_raman_532', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_raman_532  = netcdf.defVar(ncID, 'uncertainty_aerBsc_raman_532', 'NC_FLOAT', dimID_height);
-varID_aerBsc_raman_1064    = netcdf.defVar(ncID, 'aerBsc_raman_1064', 'NC_FLOAT', dimID_height);
-varID_aerBscStd_raman_1064 = netcdf.defVar(ncID, 'uncertainty_aerBsc_raman_1064', 'NC_FLOAT', dimID_height);
+dimID_height_klett = netcdf.defDim(ncID_klett, 'height', length(data.height));
+dimID_method_klett = netcdf.defDim(ncID_klett, 'method', 1);
+dimID_time_klett = netcdf.defDim(ncID_klett, 'time', length(data.mTime));
 
 
-%% raman 
-varID_aerBsc355_raman_d2        = netcdf.defVar(ncID, 'aerBsc355_raman_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_raman_d2    = netcdf.defVar(ncID, 'uncertainty_aerBsc355_raman_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_raman_dc2       = netcdf.defVar(ncID, 'aerBsc355_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_raman_dc2   = netcdf.defVar(ncID, 'uncertainty_aerBsc355_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_raman_df2       = netcdf.defVar(ncID, 'aerBsc355_raman_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_raman_df2   = netcdf.defVar(ncID, 'uncertainty_aerBsc355_raman_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_raman_nddf2     = netcdf.defVar(ncID, 'aerBsc355_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_raman_nddf2 = netcdf.defVar(ncID, 'uncertainty_aerBsc355_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_raman_nd2       = netcdf.defVar(ncID, 'aerBsc355_raman_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_raman_nd2   = netcdf.defVar(ncID, 'uncertainty_aerBsc355_raman_nd2', 'NC_FLOAT', dimID_height);
-
-varID_aerBsc532_raman_d2       = netcdf.defVar(ncID, 'aerBsc532_raman_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_raman_d2   = netcdf.defVar(ncID, 'uncertainty_aerBsc532_raman_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_raman_dc2         = netcdf.defVar(ncID, 'aerBsc532_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_raman_dc2     = netcdf.defVar(ncID, 'uncertainty_aerBsc532_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_raman_df2         = netcdf.defVar(ncID, 'aerBsc532_raman_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_raman_df2     = netcdf.defVar(ncID, 'uncertainty_aerBsc532_raman_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_raman_nddf2       = netcdf.defVar(ncID, 'aerBsc532_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_raman_nddf2   = netcdf.defVar(ncID, 'uncertainty_aerBsc532_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_raman_nd2      = netcdf.defVar(ncID, 'aerBsc532_raman_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_raman_nd2  = netcdf.defVar(ncID, 'uncertainty_aerBsc532_raman_nd2', 'NC_FLOAT', dimID_height);
-
-varID_aerBsc1064_raman_d2       = netcdf.defVar(ncID, 'aerBsc1064_raman_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_raman_d2   = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_raman_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_raman_dc2         = netcdf.defVar(ncID, 'aerBsc1064_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_raman_dc2     = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_raman_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_raman_df2         = netcdf.defVar(ncID, 'aerBsc1064_raman_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_raman_df2     = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_raman_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_raman_nddf2       = netcdf.defVar(ncID, 'aerBsc1064_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_raman_nddf2   = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_raman_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_raman_nd2      = netcdf.defVar(ncID, 'aerBsc1064_raman_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_raman_nd2  = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_raman_nd2', 'NC_FLOAT', dimID_height);
+% define variables
+% raman
+varID_altitude_raman  = netcdf.defVar(ncID_raman, 'altitude', 'NC_FLOAT', dimID_method_raman);
+varID_longitude_raman = netcdf.defVar(ncID_raman, 'longitude', 'NC_FLOAT', dimID_method_raman);
+varID_latitude_raman  = netcdf.defVar(ncID_raman, 'latitude', 'NC_FLOAT', dimID_method_raman);
+varID_startTime_raman = netcdf.defVar(ncID_raman, 'start_time', 'NC_DOUBLE', dimID_method_raman);
+varID_endTime_raman   = netcdf.defVar(ncID_raman, 'end_time', 'NC_DOUBLE', dimID_method_raman);
+varID_height_raman    = netcdf.defVar(ncID_raman, 'height', 'NC_FLOAT', dimID_height_raman);
+varID_time_raman      = netcdf.defVar(ncID_raman, 'time', 'NC_DOUBLE', dimID_time_raman);
+
+varID_beta_dc_raman      = netcdf.defVar(ncID_raman, 'beta_dc_raman', 'NC_FLOAT', dimID_height_raman);
+% klett
+varID_altitude_klett  = netcdf.defVar(ncID_klett, 'altitude', 'NC_FLOAT', dimID_method_klett);
+varID_longitude_klett = netcdf.defVar(ncID_klett, 'longitude', 'NC_FLOAT', dimID_method_klett);
+varID_latitude_klett  = netcdf.defVar(ncID_klett, 'latitude', 'NC_FLOAT', dimID_method_klett);
+varID_startTime_klett = netcdf.defVar(ncID_klett, 'start_time', 'NC_DOUBLE', dimID_method_klett);
+varID_endTime_klett   = netcdf.defVar(ncID_klett, 'end_time', 'NC_DOUBLE', dimID_method_klett);
+varID_height_klett    = netcdf.defVar(ncID_klett, 'height', 'NC_FLOAT', dimID_height_klett);
+varID_time_klett      = netcdf.defVar(ncID_klett, 'time', 'NC_DOUBLE', dimID_time_klett);
+
+varID_beta_dc_klett      = netcdf.defVar(ncID_klett, 'beta_dc_klett', 'NC_FLOAT', dimID_height_klett);
+
+
+%% total
+varID_aerBsc_klett_355     = netcdf.defVar(ncID_klett, 'aerBsc_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_aerBscStd_klett_355  = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc_klett_532     = netcdf.defVar(ncID_klett, 'aerBsc_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_aerBscStd_klett_532  = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc_klett_1064    = netcdf.defVar(ncID_klett, 'aerBsc_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_aerBscStd_klett_1064 = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+varID_aerBsc_raman_355     = netcdf.defVar(ncID_raman, 'aerBsc_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_aerBscStd_raman_355  = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc_raman_532     = netcdf.defVar(ncID_raman, 'aerBsc_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_aerBscStd_raman_532  = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc_raman_1064    = netcdf.defVar(ncID_raman, 'aerBsc_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_aerBscStd_raman_1064 = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc_raman_1064', 'NC_FLOAT', dimID_height_raman);
 
 
+%% raman 
+varID_aerBsc355_raman_d2        = netcdf.defVar(ncID_raman, 'aerBsc355_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc355_raman_d2    = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc355_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc355_raman_dc2       = netcdf.defVar(ncID_raman, 'aerBsc355_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc355_raman_dc2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc355_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc355_raman_df2       = netcdf.defVar(ncID_raman, 'aerBsc355_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc355_raman_df2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc355_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc355_raman_nddf2     = netcdf.defVar(ncID_raman, 'aerBsc355_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc355_raman_nddf2 = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc355_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc355_raman_nd2       = netcdf.defVar(ncID_raman, 'aerBsc355_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc355_raman_nd2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc355_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+
+varID_aerBsc532_raman_d2       = netcdf.defVar(ncID_raman, 'aerBsc532_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc532_raman_d2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc532_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc532_raman_dc2         = netcdf.defVar(ncID_raman, 'aerBsc532_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc532_raman_dc2     = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc532_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc532_raman_df2         = netcdf.defVar(ncID_raman, 'aerBsc532_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc532_raman_df2     = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc532_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc532_raman_nddf2       = netcdf.defVar(ncID_raman, 'aerBsc532_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc532_raman_nddf2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc532_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc532_raman_nd2      = netcdf.defVar(ncID_raman, 'aerBsc532_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc532_raman_nd2  = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc532_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+
+varID_aerBsc1064_raman_d2       = netcdf.defVar(ncID_raman, 'aerBsc1064_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc1064_raman_d2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc1064_raman_d2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc1064_raman_dc2         = netcdf.defVar(ncID_raman, 'aerBsc1064_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc1064_raman_dc2     = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc1064_raman_dc2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc1064_raman_df2         = netcdf.defVar(ncID_raman, 'aerBsc1064_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc1064_raman_df2     = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc1064_raman_df2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc1064_raman_nddf2       = netcdf.defVar(ncID_raman, 'aerBsc1064_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc1064_raman_nddf2   = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc1064_raman_nddf2', 'NC_FLOAT', dimID_height_raman);
+varID_aerBsc1064_raman_nd2      = netcdf.defVar(ncID_raman, 'aerBsc1064_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+varID_err_aerBsc1064_raman_nd2  = netcdf.defVar(ncID_raman, 'uncertainty_aerBsc1064_raman_nd2', 'NC_FLOAT', dimID_height_raman);
+
+% extinction coeffs
+varID_ext_d_raman_355 = netcdf.defVar(ncID_raman, 'ext_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_d_raman_532 = netcdf.defVar(ncID_raman, 'ext_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_d_raman_1064 = netcdf.defVar(ncID_raman, 'ext_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_cd_raman_355 = netcdf.defVar(ncID_raman, 'ext_cd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_cd_raman_532 = netcdf.defVar(ncID_raman, 'ext_cd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_cd_raman_1064 = netcdf.defVar(ncID_raman, 'ext_cd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_fd_raman_355 = netcdf.defVar(ncID_raman, 'ext_fd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_fd_raman_532 = netcdf.defVar(ncID_raman, 'ext_fd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_fd_raman_1064 = netcdf.defVar(ncID_raman, 'ext_fd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_ndm_raman_355 = netcdf.defVar(ncID_raman, 'ext_ndm1_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_ndm_raman_532 = netcdf.defVar(ncID_raman, 'ext_ndm1_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_ndm_raman_1064 = netcdf.defVar(ncID_raman, 'ext_ndm1_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_nds_raman_355 = netcdf.defVar(ncID_raman, 'ext_nds1_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_nds_raman_532 = netcdf.defVar(ncID_raman, 'ext_nds1_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_nds_raman_1064 = netcdf.defVar(ncID_raman, 'ext_nds1_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_bb_raman_355 = netcdf.defVar(ncID_raman, 'ext_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_bb_raman_532 = netcdf.defVar(ncID_raman, 'ext_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_bb_raman_1064 = netcdf.defVar(ncID_raman, 'ext_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsf_raman_355 = netcdf.defVar(ncID_raman, 'ext_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsf_raman_532 = netcdf.defVar(ncID_raman, 'ext_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'ext_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsa_raman_355 = netcdf.defVar(ncID_raman, 'ext_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsa_raman_532 = netcdf.defVar(ncID_raman, 'ext_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'ext_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vst_raman_355 = netcdf.defVar(ncID_raman, 'ext_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vst_raman_532 = netcdf.defVar(ncID_raman, 'ext_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_ext_vst_raman_1064 = netcdf.defVar(ncID_raman, 'ext_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% mass concentrations
+varID_m_d_raman_355 = netcdf.defVar(ncID_raman, 'm_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_d_raman_532 = netcdf.defVar(ncID_raman, 'm_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_d_raman_1064 = netcdf.defVar(ncID_raman, 'm_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_cd_raman_355 = netcdf.defVar(ncID_raman, 'm_cd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_cd_raman_532 = netcdf.defVar(ncID_raman, 'm_cd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_cd_raman_1064 = netcdf.defVar(ncID_raman, 'm_cd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_fd_raman_355 = netcdf.defVar(ncID_raman, 'm_fd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_fd_raman_532 = netcdf.defVar(ncID_raman, 'm_fd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_fd_raman_1064 = netcdf.defVar(ncID_raman, 'm_fd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_ndm_raman_355 = netcdf.defVar(ncID_raman, 'm_ndm_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_ndm_raman_532 = netcdf.defVar(ncID_raman, 'm_ndm_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_ndm_raman_1064 = netcdf.defVar(ncID_raman, 'm_ndm_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_nds_raman_355 = netcdf.defVar(ncID_raman, 'm_nds_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_nds_raman_532 = netcdf.defVar(ncID_raman, 'm_nds_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_nds_raman_1064 = netcdf.defVar(ncID_raman, 'm_nds_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_bb_raman_355 = netcdf.defVar(ncID_raman, 'm_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_bb_raman_532 = netcdf.defVar(ncID_raman, 'm_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_bb_raman_1064 = netcdf.defVar(ncID_raman, 'm_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsf_raman_355 = netcdf.defVar(ncID_raman, 'm_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsf_raman_532 = netcdf.defVar(ncID_raman, 'm_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'm_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsa_raman_355 = netcdf.defVar(ncID_raman, 'm_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsa_raman_532 = netcdf.defVar(ncID_raman, 'm_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'm_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_m_vst_raman_355 = netcdf.defVar(ncID_raman, 'm_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_m_vst_raman_532 = netcdf.defVar(ncID_raman, 'm_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_m_vst_raman_1064 = netcdf.defVar(ncID_raman, 'm_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% number concentrations
+varID_n_100_d_raman_355 = netcdf.defVar(ncID_raman, 'n_100_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_100_d_raman_532 = netcdf.defVar(ncID_raman, 'n_100_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_100_d_raman_1064 = netcdf.defVar(ncID_raman, 'n_100_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_d_raman_355 = netcdf.defVar(ncID_raman, 'n_250_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_d_raman_532 = netcdf.defVar(ncID_raman, 'n_250_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_d_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_c_raman_355 = netcdf.defVar(ncID_raman, 'n_50_c_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_c_raman_532 = netcdf.defVar(ncID_raman, 'n_50_c_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_c_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_c_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_c_raman_355 = netcdf.defVar(ncID_raman, 'n_250_c_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_c_raman_532 = netcdf.defVar(ncID_raman, 'n_250_c_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_c_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_c_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_m_raman_355 = netcdf.defVar(ncID_raman, 'n_50_m_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_m_raman_532 = netcdf.defVar(ncID_raman, 'n_50_m_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_m_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_m_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_m_raman_355 = netcdf.defVar(ncID_raman, 'n_250_m_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_m_raman_532 = netcdf.defVar(ncID_raman, 'n_250_m_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_m_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_m_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_bb_raman_355 = netcdf.defVar(ncID_raman, 'n_50_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_bb_raman_532 = netcdf.defVar(ncID_raman, 'n_50_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_bb_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_bb_raman_355 = netcdf.defVar(ncID_raman, 'n_250_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_bb_raman_532 = netcdf.defVar(ncID_raman, 'n_250_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_bb_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsf_raman_355 = netcdf.defVar(ncID_raman, 'n_50_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsf_raman_532 = netcdf.defVar(ncID_raman, 'n_50_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsf_raman_355 = netcdf.defVar(ncID_raman, 'n_250_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsf_raman_532 = netcdf.defVar(ncID_raman, 'n_250_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsa_raman_355 = netcdf.defVar(ncID_raman, 'n_50_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsa_raman_532 = netcdf.defVar(ncID_raman, 'n_50_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsa_raman_355 = netcdf.defVar(ncID_raman, 'n_250_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsa_raman_532 = netcdf.defVar(ncID_raman, 'n_250_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vst_raman_355 = netcdf.defVar(ncID_raman, 'n_50_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vst_raman_532 = netcdf.defVar(ncID_raman, 'n_50_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_50_vst_raman_1064 = netcdf.defVar(ncID_raman, 'n_50_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vst_raman_355 = netcdf.defVar(ncID_raman, 'n_250_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vst_raman_532 = netcdf.defVar(ncID_raman, 'n_250_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_250_vst_raman_1064 = netcdf.defVar(ncID_raman, 'n_250_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% surface area concentrations
+varID_sa_d_raman_355 = netcdf.defVar(ncID_raman, 'sa_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_d_raman_532 = netcdf.defVar(ncID_raman, 'sa_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_d_raman_1064 = netcdf.defVar(ncID_raman, 'sa_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_c_raman_355 = netcdf.defVar(ncID_raman, 'sa_c_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_c_raman_532 = netcdf.defVar(ncID_raman, 'sa_c_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_c_raman_1064 = netcdf.defVar(ncID_raman, 'sa_c_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_m_raman_355 = netcdf.defVar(ncID_raman, 'sa_m_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_m_raman_532 = netcdf.defVar(ncID_raman, 'sa_m_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_m_raman_1064 = netcdf.defVar(ncID_raman, 'sa_m_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_bb_raman_355 = netcdf.defVar(ncID_raman, 'sa_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_bb_raman_532 = netcdf.defVar(ncID_raman, 'sa_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_bb_raman_1064 = netcdf.defVar(ncID_raman, 'sa_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsf_raman_355 = netcdf.defVar(ncID_raman, 'sa_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsf_raman_532 = netcdf.defVar(ncID_raman, 'sa_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'sa_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsa_raman_355 = netcdf.defVar(ncID_raman, 'sa_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsa_raman_532 = netcdf.defVar(ncID_raman, 'sa_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'sa_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vst_raman_355 = netcdf.defVar(ncID_raman, 'sa_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vst_raman_532 = netcdf.defVar(ncID_raman, 'sa_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_sa_vst_raman_1064 = netcdf.defVar(ncID_raman, 'sa_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% errors
+% extinction
+varID_err_ext_d_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_d_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_d_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_cd_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_cd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_cd_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_cd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_cd_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_cd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_fd_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_fd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_fd_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_fd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_fd_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_fd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_ndm_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_ndm_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_ndm_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_ndm_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_ndm_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_ndm_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_nds_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_nds_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_nds_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_nds_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_nds_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_nds_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_bb_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_bb_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_bb_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsf_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsf_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsa_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsa_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vst_raman_355 = netcdf.defVar(ncID_raman, 'err_ext_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vst_raman_532 = netcdf.defVar(ncID_raman, 'err_ext_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_ext_vst_raman_1064 = netcdf.defVar(ncID_raman, 'err_ext_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% mass
+varID_err_m_d_raman_355 = netcdf.defVar(ncID_raman, 'err_m_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_d_raman_532 = netcdf.defVar(ncID_raman, 'err_m_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_d_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_cd_raman_355 = netcdf.defVar(ncID_raman, 'err_m_cd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_cd_raman_532 = netcdf.defVar(ncID_raman, 'err_m_cd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_cd_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_cd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_fd_raman_355 = netcdf.defVar(ncID_raman, 'err_m_fd_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_fd_raman_532 = netcdf.defVar(ncID_raman, 'err_m_fd_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_fd_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_fd_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_ndm_raman_355 = netcdf.defVar(ncID_raman, 'err_m_ndm_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_ndm_raman_532 = netcdf.defVar(ncID_raman, 'err_m_ndm_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_ndm_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_ndm_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_nds_raman_355 = netcdf.defVar(ncID_raman, 'err_m_nds_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_nds_raman_532 = netcdf.defVar(ncID_raman, 'err_m_nds_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_nds_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_nds_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_bb_raman_355 = netcdf.defVar(ncID_raman, 'err_m_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_bb_raman_532 = netcdf.defVar(ncID_raman, 'err_m_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_bb_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsf_raman_355 = netcdf.defVar(ncID_raman, 'err_m_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsf_raman_532 = netcdf.defVar(ncID_raman, 'err_m_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsa_raman_355 = netcdf.defVar(ncID_raman, 'err_m_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsa_raman_532 = netcdf.defVar(ncID_raman, 'err_m_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vst_raman_355 = netcdf.defVar(ncID_raman, 'err_m_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vst_raman_532 = netcdf.defVar(ncID_raman, 'err_m_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_err_m_vst_raman_1064 = netcdf.defVar(ncID_raman, 'err_m_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% CCN
+varID_n_ccn_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_d_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_d_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_d_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_d_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_d_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_d_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_c_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_c_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_c_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_c_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_c_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_c_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_m_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_m_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_m_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_m_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_m_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_m_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_bb_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_bb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_bb_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_bb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_bb_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_bb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsf_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_vsf_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsf_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_vsf_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsf_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_vsf_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vst_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_vst_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vst_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_vst_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vst_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_vst_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsa_raman_355 = netcdf.defVar(ncID_raman, 'n_ccn_vsa_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsa_raman_532 = netcdf.defVar(ncID_raman, 'n_ccn_vsa_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_ccn_vsa_raman_1064 = netcdf.defVar(ncID_raman, 'n_ccn_vsa_raman_1064', 'NC_FLOAT', dimID_height_raman);
+
+% INP
+varID_n_inp_d_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_d15_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_d15_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_n12_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_n12_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_d_s15_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_d_s15_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_c_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_c_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_m_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_m_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_bb_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_bb_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsf_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vsf_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vsa_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vsa_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_amb_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_amb_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_amb_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_amb_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_amb_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_amb_raman_1064', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_raman_355 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_raman_355', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_raman_532 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_raman_532', 'NC_FLOAT', dimID_height_raman);
+varID_n_inp_vst_d10_raman_1064 = netcdf.defVar(ncID_raman, 'n_inp_vst_d10_raman_1064', 'NC_FLOAT', dimID_height_raman);
 
 %% klett
-varID_aerBsc355_klett_d2       = netcdf.defVar(ncID, 'aerBsc355_klett_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_klett_d2   = netcdf.defVar(ncID, 'uncertainty_aerBsc355_klett_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_klett_dc2         = netcdf.defVar(ncID, 'aerBsc355_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_klett_dc2     = netcdf.defVar(ncID, 'uncertainty_aerBsc355_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_klett_df2         = netcdf.defVar(ncID, 'aerBsc355_klett_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_klett_df2     = netcdf.defVar(ncID, 'uncertainty_aerBsc355_klett_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_klett_nddf2       = netcdf.defVar(ncID, 'aerBsc355_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_klett_nddf2   = netcdf.defVar(ncID, 'uncertainty_aerBsc355_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc355_klett_nd2      = netcdf.defVar(ncID, 'aerBsc355_klett_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc355_klett_nd2  = netcdf.defVar(ncID, 'uncertainty_aerBsc355_klett_nd2', 'NC_FLOAT', dimID_height);
-
-
-varID_aerBsc532_klett_d2       = netcdf.defVar(ncID, 'aerBsc532_klett_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_klett_d2   = netcdf.defVar(ncID, 'uncertainty_aerBsc532_klett_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_klett_dc2         = netcdf.defVar(ncID, 'aerBsc532_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_klett_dc2     = netcdf.defVar(ncID, 'uncertainty_aerBsc532_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_klett_df2         = netcdf.defVar(ncID, 'aerBsc532_klett_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_klett_df2     = netcdf.defVar(ncID, 'uncertainty_aerBsc532_klett_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_klett_nddf2       = netcdf.defVar(ncID, 'aerBsc532_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_klett_nddf2   = netcdf.defVar(ncID, 'uncertainty_aerBsc532_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc532_klett_nd2      = netcdf.defVar(ncID, 'aerBsc532_klett_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc532_klett_nd2  = netcdf.defVar(ncID, 'uncertainty_aerBsc532_klett_nd2', 'NC_FLOAT', dimID_height);
-
-varID_aerBsc1064_klett_d2       = netcdf.defVar(ncID, 'aerBsc1064_klett_d2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_klett_d2   = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_klett_d2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_klett_dc2         = netcdf.defVar(ncID, 'aerBsc1064_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_klett_dc2     = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_klett_dc2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_klett_df2         = netcdf.defVar(ncID, 'aerBsc1064_klett_df2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_klett_df2     = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_klett_df2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_klett_nddf2       = netcdf.defVar(ncID, 'aerBsc1064_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_klett_nddf2   = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_klett_nddf2', 'NC_FLOAT', dimID_height);
-varID_aerBsc1064_klett_nd2      = netcdf.defVar(ncID, 'aerBsc1064_klett_nd2', 'NC_FLOAT', dimID_height);
-varID_err_aerBsc1064_klett_nd2  = netcdf.defVar(ncID, 'uncertainty_aerBsc1064_klett_nd2', 'NC_FLOAT', dimID_height);
-
-
+varID_aerBsc355_klett_d2       = netcdf.defVar(ncID_klett, 'aerBsc355_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc355_klett_d2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc355_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc355_klett_dc2         = netcdf.defVar(ncID_klett, 'aerBsc355_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc355_klett_dc2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc355_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc355_klett_df2         = netcdf.defVar(ncID_klett, 'aerBsc355_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc355_klett_df2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc355_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc355_klett_nddf2       = netcdf.defVar(ncID_klett, 'aerBsc355_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc355_klett_nddf2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc355_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc355_klett_nd2      = netcdf.defVar(ncID_klett, 'aerBsc355_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc355_klett_nd2  = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc355_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+
+
+varID_aerBsc532_klett_d2       = netcdf.defVar(ncID_klett, 'aerBsc532_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc532_klett_d2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc532_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc532_klett_dc2         = netcdf.defVar(ncID_klett, 'aerBsc532_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc532_klett_dc2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc532_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc532_klett_df2         = netcdf.defVar(ncID_klett, 'aerBsc532_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc532_klett_df2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc532_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc532_klett_nddf2       = netcdf.defVar(ncID_klett, 'aerBsc532_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc532_klett_nddf2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc532_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc532_klett_nd2      = netcdf.defVar(ncID_klett, 'aerBsc532_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc532_klett_nd2  = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc532_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+
+varID_aerBsc1064_klett_d2       = netcdf.defVar(ncID_klett, 'aerBsc1064_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc1064_klett_d2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc1064_klett_d2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc1064_klett_dc2         = netcdf.defVar(ncID_klett, 'aerBsc1064_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc1064_klett_dc2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc1064_klett_dc2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc1064_klett_df2         = netcdf.defVar(ncID_klett, 'aerBsc1064_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc1064_klett_df2     = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc1064_klett_df2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc1064_klett_nddf2       = netcdf.defVar(ncID_klett, 'aerBsc1064_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc1064_klett_nddf2   = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc1064_klett_nddf2', 'NC_FLOAT', dimID_height_klett);
+varID_aerBsc1064_klett_nd2      = netcdf.defVar(ncID_klett, 'aerBsc1064_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+varID_err_aerBsc1064_klett_nd2  = netcdf.defVar(ncID_klett, 'uncertainty_aerBsc1064_klett_nd2', 'NC_FLOAT', dimID_height_klett);
+
+
+% extinction coeffs
+varID_ext_d_klett_355 = netcdf.defVar(ncID_klett, 'ext_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_d_klett_532 = netcdf.defVar(ncID_klett, 'ext_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_d_klett_1064 = netcdf.defVar(ncID_klett, 'ext_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_cd_klett_355 = netcdf.defVar(ncID_klett, 'ext_cd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_cd_klett_532 = netcdf.defVar(ncID_klett, 'ext_cd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_cd_klett_1064 = netcdf.defVar(ncID_klett, 'ext_cd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_fd_klett_355 = netcdf.defVar(ncID_klett, 'ext_fd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_fd_klett_532 = netcdf.defVar(ncID_klett, 'ext_fd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_fd_klett_1064 = netcdf.defVar(ncID_klett, 'ext_fd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_ndm_klett_355 = netcdf.defVar(ncID_klett, 'ext_ndm1_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_ndm_klett_532 = netcdf.defVar(ncID_klett, 'ext_ndm1_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_ndm_klett_1064 = netcdf.defVar(ncID_klett, 'ext_ndm1_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_nds_klett_355 = netcdf.defVar(ncID_klett, 'ext_nds1_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_nds_klett_532 = netcdf.defVar(ncID_klett, 'ext_nds1_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_nds_klett_1064 = netcdf.defVar(ncID_klett, 'ext_nds1_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_bb_klett_355 = netcdf.defVar(ncID_klett, 'ext_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_bb_klett_532 = netcdf.defVar(ncID_klett, 'ext_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_bb_klett_1064 = netcdf.defVar(ncID_klett, 'ext_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsf_klett_355 = netcdf.defVar(ncID_klett, 'ext_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsf_klett_532 = netcdf.defVar(ncID_klett, 'ext_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'ext_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsa_klett_355 = netcdf.defVar(ncID_klett, 'ext_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsa_klett_532 = netcdf.defVar(ncID_klett, 'ext_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'ext_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vst_klett_355 = netcdf.defVar(ncID_klett, 'ext_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vst_klett_532 = netcdf.defVar(ncID_klett, 'ext_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_ext_vst_klett_1064 = netcdf.defVar(ncID_klett, 'ext_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% mass concentrations
+varID_m_d_klett_355 = netcdf.defVar(ncID_klett, 'm_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_d_klett_532 = netcdf.defVar(ncID_klett, 'm_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_d_klett_1064 = netcdf.defVar(ncID_klett, 'm_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_cd_klett_355 = netcdf.defVar(ncID_klett, 'm_cd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_cd_klett_532 = netcdf.defVar(ncID_klett, 'm_cd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_cd_klett_1064 = netcdf.defVar(ncID_klett, 'm_cd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_fd_klett_355 = netcdf.defVar(ncID_klett, 'm_fd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_fd_klett_532 = netcdf.defVar(ncID_klett, 'm_fd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_fd_klett_1064 = netcdf.defVar(ncID_klett, 'm_fd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_ndm_klett_355 = netcdf.defVar(ncID_klett, 'm_ndm_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_ndm_klett_532 = netcdf.defVar(ncID_klett, 'm_ndm_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_ndm_klett_1064 = netcdf.defVar(ncID_klett, 'm_ndm_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_nds_klett_355 = netcdf.defVar(ncID_klett, 'm_nds_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_nds_klett_532 = netcdf.defVar(ncID_klett, 'm_nds_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_nds_klett_1064 = netcdf.defVar(ncID_klett, 'm_nds_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_bb_klett_355 = netcdf.defVar(ncID_klett, 'm_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_bb_klett_532 = netcdf.defVar(ncID_klett, 'm_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_bb_klett_1064 = netcdf.defVar(ncID_klett, 'm_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsf_klett_355 = netcdf.defVar(ncID_klett, 'm_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsf_klett_532 = netcdf.defVar(ncID_klett, 'm_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'm_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsa_klett_355 = netcdf.defVar(ncID_klett, 'm_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsa_klett_532 = netcdf.defVar(ncID_klett, 'm_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'm_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_m_vst_klett_355 = netcdf.defVar(ncID_klett, 'm_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_m_vst_klett_532 = netcdf.defVar(ncID_klett, 'm_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_m_vst_klett_1064 = netcdf.defVar(ncID_klett, 'm_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% number concentrations
+varID_n_100_d_klett_355 = netcdf.defVar(ncID_klett, 'n_100_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_100_d_klett_532 = netcdf.defVar(ncID_klett, 'n_100_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_100_d_klett_1064 = netcdf.defVar(ncID_klett, 'n_100_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_d_klett_355 = netcdf.defVar(ncID_klett, 'n_250_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_d_klett_532 = netcdf.defVar(ncID_klett, 'n_250_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_d_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_c_klett_355 = netcdf.defVar(ncID_klett, 'n_50_c_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_c_klett_532 = netcdf.defVar(ncID_klett, 'n_50_c_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_c_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_c_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_c_klett_355 = netcdf.defVar(ncID_klett, 'n_250_c_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_c_klett_532 = netcdf.defVar(ncID_klett, 'n_250_c_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_c_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_c_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_m_klett_355 = netcdf.defVar(ncID_klett, 'n_50_m_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_m_klett_532 = netcdf.defVar(ncID_klett, 'n_50_m_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_m_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_m_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_m_klett_355 = netcdf.defVar(ncID_klett, 'n_250_m_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_m_klett_532 = netcdf.defVar(ncID_klett, 'n_250_m_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_m_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_m_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_bb_klett_355 = netcdf.defVar(ncID_klett, 'n_50_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_bb_klett_532 = netcdf.defVar(ncID_klett, 'n_50_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_bb_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_bb_klett_355 = netcdf.defVar(ncID_klett, 'n_250_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_bb_klett_532 = netcdf.defVar(ncID_klett, 'n_250_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_bb_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsf_klett_355 = netcdf.defVar(ncID_klett, 'n_50_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsf_klett_532 = netcdf.defVar(ncID_klett, 'n_50_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsf_klett_355 = netcdf.defVar(ncID_klett, 'n_250_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsf_klett_532 = netcdf.defVar(ncID_klett, 'n_250_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsa_klett_355 = netcdf.defVar(ncID_klett, 'n_50_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsa_klett_532 = netcdf.defVar(ncID_klett, 'n_50_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsa_klett_355 = netcdf.defVar(ncID_klett, 'n_250_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsa_klett_532 = netcdf.defVar(ncID_klett, 'n_250_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vst_klett_355 = netcdf.defVar(ncID_klett, 'n_50_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vst_klett_532 = netcdf.defVar(ncID_klett, 'n_50_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_50_vst_klett_1064 = netcdf.defVar(ncID_klett, 'n_50_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vst_klett_355 = netcdf.defVar(ncID_klett, 'n_250_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vst_klett_532 = netcdf.defVar(ncID_klett, 'n_250_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_250_vst_klett_1064 = netcdf.defVar(ncID_klett, 'n_250_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% surface area concentrations
+varID_sa_d_klett_355 = netcdf.defVar(ncID_klett, 'sa_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_d_klett_532 = netcdf.defVar(ncID_klett, 'sa_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_d_klett_1064 = netcdf.defVar(ncID_klett, 'sa_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_c_klett_355 = netcdf.defVar(ncID_klett, 'sa_c_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_c_klett_532 = netcdf.defVar(ncID_klett, 'sa_c_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_c_klett_1064 = netcdf.defVar(ncID_klett, 'sa_c_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_m_klett_355 = netcdf.defVar(ncID_klett, 'sa_m_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_m_klett_532 = netcdf.defVar(ncID_klett, 'sa_m_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_m_klett_1064 = netcdf.defVar(ncID_klett, 'sa_m_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_bb_klett_355 = netcdf.defVar(ncID_klett, 'sa_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_bb_klett_532 = netcdf.defVar(ncID_klett, 'sa_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_bb_klett_1064 = netcdf.defVar(ncID_klett, 'sa_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsf_klett_355 = netcdf.defVar(ncID_klett, 'sa_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsf_klett_532 = netcdf.defVar(ncID_klett, 'sa_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'sa_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsa_klett_355 = netcdf.defVar(ncID_klett, 'sa_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsa_klett_532 = netcdf.defVar(ncID_klett, 'sa_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'sa_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vst_klett_355 = netcdf.defVar(ncID_klett, 'sa_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vst_klett_532 = netcdf.defVar(ncID_klett, 'sa_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_sa_vst_klett_1064 = netcdf.defVar(ncID_klett, 'sa_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% errors
+% extinction
+varID_err_ext_d_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_d_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_d_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_cd_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_cd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_cd_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_cd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_cd_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_cd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_fd_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_fd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_fd_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_fd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_fd_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_fd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_ndm_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_ndm_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_ndm_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_ndm_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_ndm_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_ndm_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_nds_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_nds_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_nds_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_nds_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_nds_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_nds_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_bb_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_bb_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_bb_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsf_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsf_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsa_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsa_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vst_klett_355 = netcdf.defVar(ncID_klett, 'err_ext_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vst_klett_532 = netcdf.defVar(ncID_klett, 'err_ext_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_ext_vst_klett_1064 = netcdf.defVar(ncID_klett, 'err_ext_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% mass
+varID_err_m_d_klett_355 = netcdf.defVar(ncID_klett, 'err_m_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_d_klett_532 = netcdf.defVar(ncID_klett, 'err_m_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_d_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_cd_klett_355 = netcdf.defVar(ncID_klett, 'err_m_cd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_cd_klett_532 = netcdf.defVar(ncID_klett, 'err_m_cd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_cd_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_cd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_fd_klett_355 = netcdf.defVar(ncID_klett, 'err_m_fd_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_fd_klett_532 = netcdf.defVar(ncID_klett, 'err_m_fd_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_fd_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_fd_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_ndm_klett_355 = netcdf.defVar(ncID_klett, 'err_m_ndm_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_ndm_klett_532 = netcdf.defVar(ncID_klett, 'err_m_ndm_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_ndm_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_ndm_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_nds_klett_355 = netcdf.defVar(ncID_klett, 'err_m_nds_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_nds_klett_532 = netcdf.defVar(ncID_klett, 'err_m_nds_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_nds_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_nds_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_bb_klett_355 = netcdf.defVar(ncID_klett, 'err_m_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_bb_klett_532 = netcdf.defVar(ncID_klett, 'err_m_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_bb_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsf_klett_355 = netcdf.defVar(ncID_klett, 'err_m_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsf_klett_532 = netcdf.defVar(ncID_klett, 'err_m_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsa_klett_355 = netcdf.defVar(ncID_klett, 'err_m_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsa_klett_532 = netcdf.defVar(ncID_klett, 'err_m_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vst_klett_355 = netcdf.defVar(ncID_klett, 'err_m_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vst_klett_532 = netcdf.defVar(ncID_klett, 'err_m_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_err_m_vst_klett_1064 = netcdf.defVar(ncID_klett, 'err_m_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% CCN
+varID_n_ccn_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_d_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_d_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_d_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_d_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_d_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_d_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_c_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_c_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_c_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_c_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_c_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_c_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_m_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_m_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_m_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_m_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_m_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_m_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_bb_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_bb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_bb_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_bb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_bb_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_bb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsf_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_vsf_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsf_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_vsf_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsf_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_vsf_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vst_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_vst_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vst_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_vst_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vst_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_vst_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsa_klett_355 = netcdf.defVar(ncID_klett, 'n_ccn_vsa_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsa_klett_532 = netcdf.defVar(ncID_klett, 'n_ccn_vsa_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_ccn_vsa_klett_1064 = netcdf.defVar(ncID_klett, 'n_ccn_vsa_klett_1064', 'NC_FLOAT', dimID_height_klett);
+
+% INP
+varID_n_inp_d_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_d15_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_d15_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_n12_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_n12_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_d_s15_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_d_s15_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_c_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_c_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_m_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_m_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_bb_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_bb_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsf_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vsf_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vsa_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vsa_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_amb_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_amb_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_amb_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_amb_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_amb_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_amb_klett_1064', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_klett_355 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_klett_355', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_klett_532 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_klett_532', 'NC_FLOAT', dimID_height_klett);
+varID_n_inp_vst_d10_klett_1064 = netcdf.defVar(ncID_klett, 'n_inp_vst_d10_klett_1064', 'NC_FLOAT', dimID_height_klett);
 
 % define the filling value
-netcdf.defVarFill(ncID, varID_beta_dc, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_klett_355, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_klett_355, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_klett_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_klett_nd2, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_klett_532, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_klett_532, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_klett_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_klett_nd2, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_klett_1064, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_klett_1064, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_klett_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_klett_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_klett_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_klett_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_klett_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_klett_nd2, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_raman_355, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_raman_355, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc355_raman_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc355_raman_nd2, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_raman_532, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_raman_532, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc532_raman_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc532_raman_nd2, false, missing_value);
-
-netcdf.defVarFill(ncID, varID_aerBsc_raman_1064, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBscStd_raman_1064, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_raman_d2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_raman_dc2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_raman_df2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_raman_nddf2, false, missing_value);
-netcdf.defVarFill(ncID, varID_aerBsc1064_raman_nd2, false, missing_value);
-netcdf.defVarFill(ncID, varID_err_aerBsc1064_raman_nd2, false, missing_value); 
+netcdf.defVarFill(ncID_raman, varID_beta_dc_raman, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_beta_dc_klett, false, missing_value);
+
+% klett
+netcdf.defVarFill(ncID_klett, varID_aerBsc_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBscStd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc355_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc355_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc355_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc355_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc355_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc355_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc355_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc355_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc355_klett_nd2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc355_klett_nd2, false, missing_value);
+
+netcdf.defVarFill(ncID_klett, varID_aerBsc_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBscStd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc532_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc532_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc532_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc532_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc532_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc532_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc532_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc532_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc532_klett_nd2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc532_klett_nd2, false, missing_value);
+
+netcdf.defVarFill(ncID_klett, varID_aerBsc_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBscStd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc1064_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc1064_klett_d2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc1064_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc1064_klett_dc2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc1064_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc1064_klett_df2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc1064_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc1064_klett_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_aerBsc1064_klett_nd2, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_aerBsc1064_klett_nd2, false, missing_value);
+
+% extinction fill values
+netcdf.defVarFill(ncID_klett, varID_ext_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_cd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_cd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_cd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_fd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_fd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_fd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_ndm_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_ndm_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_ndm_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_nds_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_nds_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_nds_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_ext_vst_klett_1064, false, missing_value);
+
+% mass fill values
+netcdf.defVarFill(ncID_klett, varID_m_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_cd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_cd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_cd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_fd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_fd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_fd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_ndm_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_ndm_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_ndm_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_nds_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_nds_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_nds_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_m_vst_klett_1064, false, missing_value);
+
+% nmber fill values
+netcdf.defVarFill(ncID_klett, varID_n_100_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_100_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_100_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_c_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_c_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_c_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_c_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_c_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_c_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_m_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_m_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_m_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_m_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_m_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_m_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_50_vst_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_250_vst_klett_1064, false, missing_value);
+
+% surface area fill values
+netcdf.defVarFill(ncID_klett, varID_sa_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_c_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_c_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_c_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_m_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_m_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_m_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_sa_vst_klett_1064, false, missing_value);
+
+% error (extinction) fill values
+netcdf.defVarFill(ncID_klett, varID_err_ext_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_cd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_cd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_cd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_fd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_fd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_fd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_ndm_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_ndm_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_ndm_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_nds_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_nds_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_nds_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_ext_vst_klett_1064, false, missing_value);
+
+% error (mass) fill values
+netcdf.defVarFill(ncID_klett, varID_err_m_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_cd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_cd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_cd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_fd_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_fd_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_fd_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_ndm_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_ndm_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_ndm_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_nds_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_nds_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_nds_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vsa_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_err_m_vst_klett_1064, false, missing_value);
+
+% CCN fill values
+netcdf.defVarFill(ncID_klett, varID_n_ccn_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_d_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_d_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_d_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_c_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_c_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_c_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_m_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_m_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_m_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_bb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_bb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_bb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsf_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsf_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsf_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vst_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vst_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vst_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsa_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsa_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_ccn_vsa_klett_1064, false, missing_value);
+
+% INP fill values
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_d15_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_n12_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_d_s15_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_c_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_m_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_bb_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsf_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vsa_d10_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_klett_355, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_klett_532, false, missing_value);
+netcdf.defVarFill(ncID_klett, varID_n_inp_vst_d10_klett_1064, false, missing_value);
+
+
+% raman
+netcdf.defVarFill(ncID_raman, varID_aerBsc_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBscStd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc355_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc355_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc355_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc355_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc355_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc355_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc355_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc355_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc355_raman_nd2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc355_raman_nd2, false, missing_value);
+
+netcdf.defVarFill(ncID_raman, varID_aerBsc_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBscStd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc532_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc532_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc532_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc532_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc532_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc532_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc532_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc532_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc532_raman_nd2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc532_raman_nd2, false, missing_value);
+
+netcdf.defVarFill(ncID_raman, varID_aerBsc_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBscStd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc1064_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc1064_raman_d2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc1064_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc1064_raman_dc2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc1064_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc1064_raman_df2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc1064_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc1064_raman_nddf2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_aerBsc1064_raman_nd2, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_aerBsc1064_raman_nd2, false, missing_value); 
+
+% extinction fill values
+netcdf.defVarFill(ncID_raman, varID_ext_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_cd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_cd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_cd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_fd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_fd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_fd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_ndm_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_ndm_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_ndm_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_nds_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_nds_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_nds_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_ext_vst_raman_1064, false, missing_value);
+
+% mass fill values
+netcdf.defVarFill(ncID_raman, varID_m_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_cd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_cd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_cd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_fd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_fd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_fd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_ndm_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_ndm_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_ndm_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_nds_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_nds_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_nds_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_m_vst_raman_1064, false, missing_value);
+
+% number fill values
+netcdf.defVarFill(ncID_raman, varID_n_100_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_100_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_100_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_c_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_c_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_c_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_c_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_c_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_c_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_m_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_m_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_m_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_m_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_m_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_m_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_50_vst_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_250_vst_raman_1064, false, missing_value);
+
+% surface area fill values
+netcdf.defVarFill(ncID_raman, varID_sa_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_c_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_c_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_c_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_m_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_m_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_m_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_sa_vst_raman_1064, false, missing_value);
+
+% error (extinction) fill values
+netcdf.defVarFill(ncID_raman, varID_err_ext_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_cd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_cd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_cd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_fd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_fd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_fd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_ndm_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_ndm_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_ndm_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_nds_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_nds_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_nds_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_ext_vst_raman_1064, false, missing_value);
+
+% error (mass) fill values
+netcdf.defVarFill(ncID_raman, varID_err_m_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_cd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_cd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_cd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_fd_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_fd_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_fd_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_ndm_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_ndm_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_ndm_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_nds_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_nds_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_nds_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vsa_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_err_m_vst_raman_1064, false, missing_value);
+
+% CCN fill values
+netcdf.defVarFill(ncID_raman, varID_n_ccn_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_d_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_d_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_d_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_c_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_c_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_c_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_m_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_m_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_m_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_bb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_bb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_bb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsf_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsf_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsf_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vst_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vst_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vst_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsa_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsa_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_ccn_vsa_raman_1064, false, missing_value);
+
+% INP fill values
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_d15_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_n12_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_d_s15_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_c_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_m_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_bb_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsf_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vsa_d10_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_raman_355, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_raman_532, false, missing_value);
+netcdf.defVarFill(ncID_raman, varID_n_inp_vst_d10_raman_1064, false, missing_value);
 
 
 % define the data compression
 
-netcdf.defVarDeflate(ncID, varID_beta_dc, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_beta_dc_raman, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_beta_dc_klett, true, true, 5);
 
 %% klett
-netcdf.defVarDeflate(ncID, varID_aerBsc_klett_355, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_klett_355, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_klett_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_klett_nd2, true, true, 5);
-
-netcdf.defVarDeflate(ncID, varID_aerBsc_klett_532, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_klett_532, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_klett_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_klett_nd2, true, true, 5);
-
-netcdf.defVarDeflate(ncID, varID_aerBsc_klett_1064, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_klett_1064, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_klett_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_klett_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_klett_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_klett_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_klett_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_klett_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBscStd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc355_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc355_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc355_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc355_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc355_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc355_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc355_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc355_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc355_klett_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc355_klett_nd2, true, true, 5);
+
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBscStd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc532_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc532_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc532_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc532_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc532_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc532_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc532_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc532_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc532_klett_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc532_klett_nd2, true, true, 5);
+
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBscStd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc1064_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc1064_klett_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc1064_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc1064_klett_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc1064_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc1064_klett_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc1064_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc1064_klett_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_aerBsc1064_klett_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_aerBsc1064_klett_nd2, true, true, 5);
+
+% Extinction deflation
+netcdf.defVarDeflate(ncID_klett, varID_ext_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_cd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_cd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_cd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_fd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_fd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_fd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_ndm_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_ndm_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_ndm_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_nds_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_nds_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_nds_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_ext_vst_klett_1064, true, true, 5);
+
+% Mass deflation
+netcdf.defVarDeflate(ncID_klett, varID_m_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_cd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_cd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_cd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_fd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_fd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_fd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_ndm_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_ndm_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_ndm_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_nds_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_nds_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_nds_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_m_vst_klett_1064, true, true, 5);
+
+% Number deflation
+netcdf.defVarDeflate(ncID_klett, varID_n_100_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_100_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_100_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_c_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_c_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_c_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_c_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_c_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_c_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_m_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_m_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_m_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_m_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_m_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_m_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_50_vst_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_250_vst_klett_1064, true, true, 5);
+
+% Surface area deflation
+netcdf.defVarDeflate(ncID_klett, varID_sa_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_c_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_c_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_c_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_m_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_m_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_m_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_sa_vst_klett_1064, true, true, 5);
+
+% Error (extinction) deflation
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_cd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_cd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_cd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_fd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_fd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_fd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_ndm_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_ndm_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_ndm_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_nds_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_nds_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_nds_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_ext_vst_klett_1064, true, true, 5);
+
+% Error (mass) deflation
+netcdf.defVarDeflate(ncID_klett, varID_err_m_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_cd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_cd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_cd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_fd_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_fd_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_fd_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_ndm_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_ndm_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_ndm_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_nds_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_nds_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_nds_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vsa_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_err_m_vst_klett_1064, true, true, 5);
+
+% CCN deflation
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_d_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_d_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_d_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_c_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_c_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_c_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_m_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_m_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_m_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_bb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_bb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_bb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsf_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsf_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsf_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vst_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vst_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vst_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsa_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsa_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_ccn_vsa_klett_1064, true, true, 5);
+
+% INP deflation
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_d15_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_n12_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_d_s15_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_c_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_m_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_bb_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsf_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vsa_d10_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_klett_355, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_klett_532, true, true, 5);
+netcdf.defVarDeflate(ncID_klett, varID_n_inp_vst_d10_klett_1064, true, true, 5);
 
 %% raman
-netcdf.defVarDeflate(ncID, varID_aerBsc_raman_355, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_raman_355, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc355_raman_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc355_raman_nd2, true, true, 5);
-
-netcdf.defVarDeflate(ncID, varID_aerBsc_raman_532, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_raman_532, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc532_raman_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc532_raman_nd2, true, true, 5);
-
-netcdf.defVarDeflate(ncID, varID_aerBsc_raman_1064, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBscStd_raman_1064, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_raman_d2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_raman_dc2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_raman_df2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_raman_nddf2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_aerBsc1064_raman_nd2, true, true, 5);
-netcdf.defVarDeflate(ncID, varID_err_aerBsc1064_raman_nd2, true, true, 5);
-
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBscStd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc355_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc355_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc355_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc355_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc355_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc355_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc355_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc355_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc355_raman_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc355_raman_nd2, true, true, 5);
+
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBscStd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc532_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc532_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc532_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc532_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc532_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc532_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc532_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc532_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc532_raman_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc532_raman_nd2, true, true, 5);
+
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBscStd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc1064_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc1064_raman_d2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc1064_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc1064_raman_dc2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc1064_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc1064_raman_df2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc1064_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc1064_raman_nddf2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_aerBsc1064_raman_nd2, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_aerBsc1064_raman_nd2, true, true, 5);
+
+% extinction deflation
+netcdf.defVarDeflate(ncID_raman, varID_ext_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_cd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_cd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_cd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_fd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_fd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_fd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_ndm_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_ndm_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_ndm_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_nds_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_nds_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_nds_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_ext_vst_raman_1064, true, true, 5);
+
+% mass deflation
+netcdf.defVarDeflate(ncID_raman, varID_m_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_cd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_cd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_cd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_fd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_fd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_fd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_ndm_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_ndm_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_ndm_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_nds_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_nds_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_nds_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_m_vst_raman_1064, true, true, 5);
+
+% number deflation
+netcdf.defVarDeflate(ncID_raman, varID_n_100_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_100_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_100_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_c_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_c_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_c_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_c_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_c_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_c_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_m_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_m_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_m_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_m_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_m_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_m_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_50_vst_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_250_vst_raman_1064, true, true, 5);
+
+% eurface area deflation
+netcdf.defVarDeflate(ncID_raman, varID_sa_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_c_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_c_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_c_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_m_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_m_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_m_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_sa_vst_raman_1064, true, true, 5);
+
+% error 
+% extinction deflation
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_cd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_cd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_cd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_fd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_fd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_fd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_ndm_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_ndm_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_ndm_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_nds_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_nds_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_nds_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_ext_vst_raman_1064, true, true, 5);
+
+% mass deflation 
+netcdf.defVarDeflate(ncID_raman, varID_err_m_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_cd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_cd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_cd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_fd_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_fd_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_fd_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_ndm_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_ndm_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_ndm_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_nds_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_nds_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_nds_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vsa_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_err_m_vst_raman_1064, true, true, 5);
+
+% CCN deflation
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_d_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_d_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_d_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_c_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_c_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_c_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_m_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_m_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_m_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_bb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_bb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_bb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsf_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsf_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsf_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vst_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vst_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vst_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsa_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsa_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_ccn_vsa_raman_1064, true, true, 5);
+
+% INP deflation
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_d15_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_n12_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_d_s15_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_c_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_m_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_bb_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsf_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vsa_d10_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_raman_355, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_raman_532, true, true, 5);
+netcdf.defVarDeflate(ncID_raman, varID_n_inp_vst_d10_raman_1064, true, true, 5);
 
 % leave define mode
-netcdf.endDef(ncID);
+netcdf.endDef(ncID_raman);
+netcdf.endDef(ncID_klett);
 
 % write data to .nc file
-netcdf.putVar(ncID, varID_altitude, single(data.alt0));
-netcdf.putVar(ncID, varID_longitude, single(data.lon));
-netcdf.putVar(ncID, varID_latitude, single(data.lat));
-netcdf.putVar(ncID, varID_startTime, datenum_2_unix_timestamp(startTime));
-netcdf.putVar(ncID, varID_endTime, datenum_2_unix_timestamp(endTime));
-netcdf.putVar(ncID, varID_height, single(data.height));
-netcdf.putVar(ncID, varID_time, datenum_2_unix_timestamp(data.mTime));
-
-
+netcdf.putVar(ncID_raman, varID_altitude_raman, single(data.alt0));
+netcdf.putVar(ncID_raman, varID_longitude_raman, single(data.lon));
+netcdf.putVar(ncID_raman, varID_latitude_raman, single(data.lat));
+netcdf.putVar(ncID_raman, varID_startTime_raman, datenum_2_unix_timestamp(startTime));
+netcdf.putVar(ncID_raman, varID_endTime_raman, datenum_2_unix_timestamp(endTime));
+netcdf.putVar(ncID_raman, varID_height_raman, single(data.height));
+netcdf.putVar(ncID_raman, varID_time_raman, datenum_2_unix_timestamp(data.mTime));
+
+netcdf.putVar(ncID_klett, varID_altitude_klett, single(data.alt0));
+netcdf.putVar(ncID_klett, varID_longitude_klett, single(data.lon));
+netcdf.putVar(ncID_klett, varID_latitude_klett, single(data.lat));
+netcdf.putVar(ncID_klett, varID_startTime_klett, datenum_2_unix_timestamp(startTime));
+netcdf.putVar(ncID_klett, varID_endTime_klett, datenum_2_unix_timestamp(endTime));
+netcdf.putVar(ncID_klett, varID_height_klett, single(data.height));
+netcdf.putVar(ncID_klett, varID_time_klett, datenum_2_unix_timestamp(data.mTime));
 
 %% raman
+netcdf.putVar(ncID_raman, varID_aerBsc_raman_355, single(fillmissing(data.aerBsc355_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBscStd_raman_355, single(fillmissing(data.aerBscStd355_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc355_raman_d2, single(fillmissing(POLIPHON2.aerBsc355_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc355_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc355_raman_dc2, single(fillmissing(POLIPHON2.aerBsc355_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc355_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc355_raman_df2, single(fillmissing(POLIPHON2.aerBsc355_raman_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc355_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_aerBsc355_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc355_raman_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_err_aerBsc355_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc355_raman_nd2, single(fillmissing(POLIPHON2.aerBsc355_raman_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc355_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_nd2(iGrp, :), missing_value)));
+
+netcdf.putVar(ncID_raman, varID_aerBsc_raman_532, single(fillmissing(data.aerBsc532_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBscStd_raman_532, single(fillmissing(data.aerBscStd532_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc532_raman_d2, single(fillmissing(POLIPHON2.aerBsc532_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc532_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc532_raman_dc2, single(fillmissing(POLIPHON2.aerBsc532_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc532_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc532_raman_df2, single(fillmissing(POLIPHON2.aerBsc532_raman_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc532_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_aerBsc532_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc532_raman_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_err_aerBsc532_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc532_raman_nd2, single(fillmissing(POLIPHON2.aerBsc532_raman_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc532_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_nd2(iGrp, :), missing_value)));
+
+netcdf.putVar(ncID_raman, varID_aerBsc_raman_1064, single(fillmissing(data.aerBsc1064_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBscStd_raman_1064, single(fillmissing(data.aerBscStd1064_raman(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc1064_raman_d2, single(fillmissing(POLIPHON2.aerBsc1064_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc1064_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc1064_raman_dc2, single(fillmissing(POLIPHON2.aerBsc1064_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc1064_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc1064_raman_df2, single(fillmissing(POLIPHON2.aerBsc1064_raman_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc1064_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_aerBsc1064_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc1064_raman_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_raman, varID_err_aerBsc1064_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_aerBsc1064_raman_nd2, single(fillmissing(POLIPHON2.aerBsc1064_raman_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_aerBsc1064_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_nd2(iGrp, :), missing_value)));
+
+% extinction coeffs
+netcdf.putVar(ncID_raman, varID_ext_d_raman_355, single(fillmissing(POLIPHON2.ext_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_d_raman_532, single(fillmissing(POLIPHON2.ext_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_d_raman_1064, single(fillmissing(POLIPHON2.ext_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_cd_raman_355, single(fillmissing(POLIPHON2.ext_cd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_cd_raman_532, single(fillmissing(POLIPHON2.ext_cd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_cd_raman_1064, single(fillmissing(POLIPHON2.ext_cd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_fd_raman_355, single(fillmissing(POLIPHON2.ext_fd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_fd_raman_532, single(fillmissing(POLIPHON2.ext_fd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_fd_raman_1064, single(fillmissing(POLIPHON2.ext_fd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_ndm_raman_355, single(fillmissing(POLIPHON2.ext_ndm_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_ndm_raman_532, single(fillmissing(POLIPHON2.ext_ndm_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_ndm_raman_1064, single(fillmissing(POLIPHON2.ext_ndm_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_nds_raman_355, single(fillmissing(POLIPHON2.ext_nds_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_nds_raman_532, single(fillmissing(POLIPHON2.ext_nds_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_nds_raman_1064, single(fillmissing(POLIPHON2.ext_nds_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_bb_raman_355, single(fillmissing(POLIPHON2.ext_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_bb_raman_532, single(fillmissing(POLIPHON2.ext_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_bb_raman_1064, single(fillmissing(POLIPHON2.ext_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsf_raman_355, single(fillmissing(POLIPHON2.ext_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsf_raman_532, single(fillmissing(POLIPHON2.ext_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsf_raman_1064, single(fillmissing(POLIPHON2.ext_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsa_raman_355, single(fillmissing(POLIPHON2.ext_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsa_raman_532, single(fillmissing(POLIPHON2.ext_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vsa_raman_1064, single(fillmissing(POLIPHON2.ext_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vst_raman_355, single(fillmissing(POLIPHON2.ext_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vst_raman_532, single(fillmissing(POLIPHON2.ext_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_ext_vst_raman_1064, single(fillmissing(POLIPHON2.ext_vst_raman_1064(:, 1), missing_value)));
+
+% mass concentrations
+netcdf.putVar(ncID_raman, varID_m_d_raman_355, single(fillmissing(POLIPHON2.m_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_d_raman_532, single(fillmissing(POLIPHON2.m_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_d_raman_1064, single(fillmissing(POLIPHON2.m_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_cd_raman_355, single(fillmissing(POLIPHON2.m_cd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_cd_raman_532, single(fillmissing(POLIPHON2.m_cd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_cd_raman_1064, single(fillmissing(POLIPHON2.m_cd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_fd_raman_355, single(fillmissing(POLIPHON2.m_fd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_fd_raman_532, single(fillmissing(POLIPHON2.m_fd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_fd_raman_1064, single(fillmissing(POLIPHON2.m_fd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_ndm_raman_355, single(fillmissing(POLIPHON2.m_ndm_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_ndm_raman_532, single(fillmissing(POLIPHON2.m_ndm_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_ndm_raman_1064, single(fillmissing(POLIPHON2.m_ndm_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_nds_raman_355, single(fillmissing(POLIPHON2.m_nds_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_nds_raman_532, single(fillmissing(POLIPHON2.m_nds_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_nds_raman_1064, single(fillmissing(POLIPHON2.m_nds_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_bb_raman_355, single(fillmissing(POLIPHON2.m_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_bb_raman_532, single(fillmissing(POLIPHON2.m_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_bb_raman_1064, single(fillmissing(POLIPHON2.m_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsf_raman_355, single(fillmissing(POLIPHON2.m_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsf_raman_532, single(fillmissing(POLIPHON2.m_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsf_raman_1064, single(fillmissing(POLIPHON2.m_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsa_raman_355, single(fillmissing(POLIPHON2.m_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsa_raman_532, single(fillmissing(POLIPHON2.m_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vsa_raman_1064, single(fillmissing(POLIPHON2.m_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vst_raman_355, single(fillmissing(POLIPHON2.m_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vst_raman_532, single(fillmissing(POLIPHON2.m_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_m_vst_raman_1064, single(fillmissing(POLIPHON2.m_vst_raman_1064(:, 1), missing_value)));
+
+% number concentrations
+netcdf.putVar(ncID_raman, varID_n_100_d_raman_355, single(fillmissing(POLIPHON2.n_100_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_100_d_raman_532, single(fillmissing(POLIPHON2.n_100_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_100_d_raman_1064, single(fillmissing(POLIPHON2.n_100_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_d_raman_355, single(fillmissing(POLIPHON2.n_250_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_d_raman_532, single(fillmissing(POLIPHON2.n_250_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_d_raman_1064, single(fillmissing(POLIPHON2.n_250_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_c_raman_355, single(fillmissing(POLIPHON2.n_50_c_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_c_raman_532, single(fillmissing(POLIPHON2.n_50_c_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_c_raman_1064, single(fillmissing(POLIPHON2.n_50_c_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_c_raman_355, single(fillmissing(POLIPHON2.n_250_c_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_c_raman_532, single(fillmissing(POLIPHON2.n_250_c_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_c_raman_1064, single(fillmissing(POLIPHON2.n_250_c_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_m_raman_355, single(fillmissing(POLIPHON2.n_50_m_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_m_raman_532, single(fillmissing(POLIPHON2.n_50_m_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_m_raman_1064, single(fillmissing(POLIPHON2.n_50_m_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_m_raman_355, single(fillmissing(POLIPHON2.n_250_m_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_m_raman_532, single(fillmissing(POLIPHON2.n_250_m_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_m_raman_1064, single(fillmissing(POLIPHON2.n_250_m_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_bb_raman_355, single(fillmissing(POLIPHON2.n_50_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_bb_raman_532, single(fillmissing(POLIPHON2.n_50_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_bb_raman_1064, single(fillmissing(POLIPHON2.n_50_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_bb_raman_355, single(fillmissing(POLIPHON2.n_250_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_bb_raman_532, single(fillmissing(POLIPHON2.n_250_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_bb_raman_1064, single(fillmissing(POLIPHON2.n_250_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsf_raman_355, single(fillmissing(POLIPHON2.n_50_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsf_raman_532, single(fillmissing(POLIPHON2.n_50_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsf_raman_1064, single(fillmissing(POLIPHON2.n_50_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsf_raman_355, single(fillmissing(POLIPHON2.n_250_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsf_raman_532, single(fillmissing(POLIPHON2.n_250_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsf_raman_1064, single(fillmissing(POLIPHON2.n_250_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsa_raman_355, single(fillmissing(POLIPHON2.n_50_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsa_raman_532, single(fillmissing(POLIPHON2.n_50_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vsa_raman_1064, single(fillmissing(POLIPHON2.n_50_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsa_raman_355, single(fillmissing(POLIPHON2.n_250_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsa_raman_532, single(fillmissing(POLIPHON2.n_250_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vsa_raman_1064, single(fillmissing(POLIPHON2.n_250_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vst_raman_355, single(fillmissing(POLIPHON2.n_50_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vst_raman_532, single(fillmissing(POLIPHON2.n_50_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_50_vst_raman_1064, single(fillmissing(POLIPHON2.n_50_vst_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vst_raman_355, single(fillmissing(POLIPHON2.n_250_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vst_raman_532, single(fillmissing(POLIPHON2.n_250_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_250_vst_raman_1064, single(fillmissing(POLIPHON2.n_250_vst_raman_1064(:, 1), missing_value)));
+
+% surface area concentrations
+netcdf.putVar(ncID_raman, varID_sa_d_raman_355, single(fillmissing(POLIPHON2.sa_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_d_raman_532, single(fillmissing(POLIPHON2.sa_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_d_raman_1064, single(fillmissing(POLIPHON2.sa_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_c_raman_355, single(fillmissing(POLIPHON2.sa_c_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_c_raman_532, single(fillmissing(POLIPHON2.sa_c_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_c_raman_1064, single(fillmissing(POLIPHON2.sa_c_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_m_raman_355, single(fillmissing(POLIPHON2.sa_m_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_m_raman_532, single(fillmissing(POLIPHON2.sa_m_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_m_raman_1064, single(fillmissing(POLIPHON2.sa_m_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_bb_raman_355, single(fillmissing(POLIPHON2.sa_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_bb_raman_532, single(fillmissing(POLIPHON2.sa_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_bb_raman_1064, single(fillmissing(POLIPHON2.sa_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsf_raman_355, single(fillmissing(POLIPHON2.sa_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsf_raman_532, single(fillmissing(POLIPHON2.sa_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsf_raman_1064, single(fillmissing(POLIPHON2.sa_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsa_raman_355, single(fillmissing(POLIPHON2.sa_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsa_raman_532, single(fillmissing(POLIPHON2.sa_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vsa_raman_1064, single(fillmissing(POLIPHON2.sa_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vst_raman_355, single(fillmissing(POLIPHON2.sa_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vst_raman_532, single(fillmissing(POLIPHON2.sa_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_sa_vst_raman_1064, single(fillmissing(POLIPHON2.sa_vst_raman_1064(:, 1), missing_value)));
+
+% errors extinction
+netcdf.putVar(ncID_raman, varID_err_ext_d_raman_355, single(fillmissing(POLIPHON2.err_ext_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_d_raman_532, single(fillmissing(POLIPHON2.err_ext_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_d_raman_1064, single(fillmissing(POLIPHON2.err_ext_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_cd_raman_355, single(fillmissing(POLIPHON2.err_ext_cd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_cd_raman_532, single(fillmissing(POLIPHON2.err_ext_cd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_cd_raman_1064, single(fillmissing(POLIPHON2.err_ext_cd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_fd_raman_355, single(fillmissing(POLIPHON2.err_ext_fd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_fd_raman_532, single(fillmissing(POLIPHON2.err_ext_fd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_fd_raman_1064, single(fillmissing(POLIPHON2.err_ext_fd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_ndm_raman_355, single(fillmissing(POLIPHON2.err_ext_ndm_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_ndm_raman_532, single(fillmissing(POLIPHON2.err_ext_ndm_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_ndm_raman_1064, single(fillmissing(POLIPHON2.err_ext_ndm_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_nds_raman_355, single(fillmissing(POLIPHON2.err_ext_nds_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_nds_raman_532, single(fillmissing(POLIPHON2.err_ext_nds_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_nds_raman_1064, single(fillmissing(POLIPHON2.err_ext_nds_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_bb_raman_355, single(fillmissing(POLIPHON2.err_ext_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_bb_raman_532, single(fillmissing(POLIPHON2.err_ext_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_bb_raman_1064, single(fillmissing(POLIPHON2.err_ext_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsf_raman_355, single(fillmissing(POLIPHON2.err_ext_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsf_raman_532, single(fillmissing(POLIPHON2.err_ext_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsf_raman_1064, single(fillmissing(POLIPHON2.err_ext_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsa_raman_355, single(fillmissing(POLIPHON2.err_ext_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsa_raman_532, single(fillmissing(POLIPHON2.err_ext_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vsa_raman_1064, single(fillmissing(POLIPHON2.err_ext_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vst_raman_355, single(fillmissing(POLIPHON2.err_ext_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vst_raman_532, single(fillmissing(POLIPHON2.err_ext_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_ext_vst_raman_1064, single(fillmissing(POLIPHON2.err_ext_vst_raman_1064(:, 1), missing_value)));
+
+% errors mass
+netcdf.putVar(ncID_raman, varID_err_m_d_raman_355, single(fillmissing(POLIPHON2.err_m_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_d_raman_532, single(fillmissing(POLIPHON2.err_m_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_d_raman_1064, single(fillmissing(POLIPHON2.err_m_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_cd_raman_355, single(fillmissing(POLIPHON2.err_m_cd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_cd_raman_532, single(fillmissing(POLIPHON2.err_m_cd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_cd_raman_1064, single(fillmissing(POLIPHON2.err_m_cd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_fd_raman_355, single(fillmissing(POLIPHON2.err_m_fd_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_fd_raman_532, single(fillmissing(POLIPHON2.err_m_fd_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_fd_raman_1064, single(fillmissing(POLIPHON2.err_m_fd_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_ndm_raman_355, single(fillmissing(POLIPHON2.err_m_ndm_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_ndm_raman_532, single(fillmissing(POLIPHON2.err_m_ndm_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_ndm_raman_1064, single(fillmissing(POLIPHON2.err_m_ndm_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_nds_raman_355, single(fillmissing(POLIPHON2.err_m_nds_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_nds_raman_532, single(fillmissing(POLIPHON2.err_m_nds_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_nds_raman_1064, single(fillmissing(POLIPHON2.err_m_nds_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_bb_raman_355, single(fillmissing(POLIPHON2.err_m_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_bb_raman_532, single(fillmissing(POLIPHON2.err_m_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_bb_raman_1064, single(fillmissing(POLIPHON2.err_m_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsf_raman_355, single(fillmissing(POLIPHON2.err_m_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsf_raman_532, single(fillmissing(POLIPHON2.err_m_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsf_raman_1064, single(fillmissing(POLIPHON2.err_m_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsa_raman_355, single(fillmissing(POLIPHON2.err_m_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsa_raman_532, single(fillmissing(POLIPHON2.err_m_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vsa_raman_1064, single(fillmissing(POLIPHON2.err_m_vsa_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vst_raman_355, single(fillmissing(POLIPHON2.err_m_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vst_raman_532, single(fillmissing(POLIPHON2.err_m_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_err_m_vst_raman_1064, single(fillmissing(POLIPHON2.err_m_vst_raman_1064(:, 1), missing_value)));
+
+% ccn
+netcdf.putVar(ncID_raman, varID_n_ccn_raman_355, single(fillmissing(POLIPHON2.n_ccn_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_raman_532, single(fillmissing(POLIPHON2.n_ccn_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_raman_1064, single(fillmissing(POLIPHON2.n_ccn_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_d_raman_355, single(fillmissing(POLIPHON2.n_ccn_d_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_d_raman_532, single(fillmissing(POLIPHON2.n_ccn_d_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_d_raman_1064, single(fillmissing(POLIPHON2.n_ccn_d_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_c_raman_355, single(fillmissing(POLIPHON2.n_ccn_c_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_c_raman_532, single(fillmissing(POLIPHON2.n_ccn_c_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_c_raman_1064, single(fillmissing(POLIPHON2.n_ccn_c_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_m_raman_355, single(fillmissing(POLIPHON2.n_ccn_m_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_m_raman_532, single(fillmissing(POLIPHON2.n_ccn_m_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_m_raman_1064, single(fillmissing(POLIPHON2.n_ccn_m_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_bb_raman_355, single(fillmissing(POLIPHON2.n_ccn_bb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_bb_raman_532, single(fillmissing(POLIPHON2.n_ccn_bb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_bb_raman_1064, single(fillmissing(POLIPHON2.n_ccn_bb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsf_raman_355, single(fillmissing(POLIPHON2.n_ccn_vsf_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsf_raman_532, single(fillmissing(POLIPHON2.n_ccn_vsf_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsf_raman_1064, single(fillmissing(POLIPHON2.n_ccn_vsf_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vst_raman_355, single(fillmissing(POLIPHON2.n_ccn_vst_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vst_raman_532, single(fillmissing(POLIPHON2.n_ccn_vst_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vst_raman_1064, single(fillmissing(POLIPHON2.n_ccn_vst_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsa_raman_355, single(fillmissing(POLIPHON2.n_ccn_vsa_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsa_raman_532, single(fillmissing(POLIPHON2.n_ccn_vsa_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_ccn_vsa_raman_1064, single(fillmissing(POLIPHON2.n_ccn_vsa_raman_1064(:, 1), missing_value)));
+
+% inp
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_d_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_d_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_raman_355, single(fillmissing(POLIPHON2.n_inp_d_d15_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_raman_532, single(fillmissing(POLIPHON2.n_inp_d_d15_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_d15_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_d15_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_raman_355, single(fillmissing(POLIPHON2.n_inp_d_n12_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_raman_532, single(fillmissing(POLIPHON2.n_inp_d_n12_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_n12_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_n12_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_raman_355, single(fillmissing(POLIPHON2.n_inp_d_s15_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_raman_532, single(fillmissing(POLIPHON2.n_inp_d_s15_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_d_s15_raman_1064, single(fillmissing(POLIPHON2.n_inp_d_s15_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_c_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_c_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_c_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_c_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_m_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_m_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_m_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_m_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_bb_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_bb_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_bb_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_bb_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_vsf_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_vsf_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsf_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_vsf_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_vsa_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_vsa_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vsa_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_vsa_d10_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_raman_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_raman_355, single(fillmissing(POLIPHON2.n_inp_vst_d10_raman_355(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_raman_532, single(fillmissing(POLIPHON2.n_inp_vst_d10_raman_532(:, 1), missing_value)));
+netcdf.putVar(ncID_raman, varID_n_inp_vst_d10_raman_1064, single(fillmissing(POLIPHON2.n_inp_vst_d10_raman_1064(:, 1), missing_value)));
 
-netcdf.putVar(ncID, varID_aerBsc_raman_355, single(fillmissing(data.aerBsc355_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_raman_355, single(fillmissing(data.aerBscStd355_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_raman_d2, single(fillmissing(POLIPHON2.aerBsc355_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_raman_dc2, single(fillmissing(POLIPHON2.aerBsc355_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_raman_df2, single(fillmissing(POLIPHON2.aerBsc355_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc355_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_raman_nd2, single(fillmissing(POLIPHON2.aerBsc355_raman_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc355_raman_nd2(iGrp, :), missing_value)));
-
-netcdf.putVar(ncID, varID_aerBsc_raman_532, single(fillmissing(data.aerBsc532_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_raman_532, single(fillmissing(data.aerBscStd532_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_raman_d2, single(fillmissing(POLIPHON2.aerBsc532_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_raman_dc2, single(fillmissing(POLIPHON2.aerBsc532_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_raman_df2, single(fillmissing(POLIPHON2.aerBsc532_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc532_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_raman_nd2, single(fillmissing(POLIPHON2.aerBsc532_raman_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc532_raman_nd2(iGrp, :), missing_value)));
-
-netcdf.putVar(ncID, varID_aerBsc_raman_1064, single(fillmissing(data.aerBsc1064_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_raman_1064, single(fillmissing(data.aerBscStd1064_raman(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_raman_d2, single(fillmissing(POLIPHON2.aerBsc1064_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_raman_d2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_raman_dc2, single(fillmissing(POLIPHON2.aerBsc1064_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_raman_dc2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_raman_df2, single(fillmissing(POLIPHON2.aerBsc1064_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_raman_df2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_raman_nddf2, single(fillmissing(POLIPHON2.aerBsc1064_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_raman_nddf2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_raman_nd2, single(fillmissing(POLIPHON2.aerBsc1064_raman_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_raman_nd2, single(fillmissing(POLIPHON2.err_aerBsc1064_raman_nd2(iGrp, :), missing_value)));
 
-%% klett
 
-netcdf.putVar(ncID, varID_aerBsc_klett_355, single(fillmissing(data.aerBsc355_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_klett_355, single(fillmissing(data.aerBscStd355_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_klett_d2, single(fillmissing(POLIPHON2.aerBsc355_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_klett_dc2, single(fillmissing(POLIPHON2.aerBsc355_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_klett_df2, single(fillmissing(POLIPHON2.aerBsc355_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc355_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc355_klett_nd2, single(fillmissing(POLIPHON2.aerBsc355_klett_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc355_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_nd2(iGrp, :), missing_value)));
-
-netcdf.putVar(ncID, varID_aerBsc_klett_532, single(fillmissing(data.aerBsc532_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_klett_532, single(fillmissing(data.aerBscStd532_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_klett_d2, single(fillmissing(POLIPHON2.aerBsc532_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_klett_dc2, single(fillmissing(POLIPHON2.aerBsc532_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_klett_df2, single(fillmissing(POLIPHON2.aerBsc532_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc532_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc532_klett_nd2, single(fillmissing(POLIPHON2.aerBsc532_klett_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc532_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_nd2(iGrp, :), missing_value)));
-
-netcdf.putVar(ncID, varID_aerBsc_klett_1064, single(fillmissing(data.aerBsc1064_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBscStd_klett_1064, single(fillmissing(data.aerBscStd1064_klett(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_klett_d2, single(fillmissing(POLIPHON2.aerBsc1064_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_d2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_klett_dc2, single(fillmissing(POLIPHON2.aerBsc1064_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_dc2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_klett_df2, single(fillmissing(POLIPHON2.aerBsc1064_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_df2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc1064_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_nddf2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_aerBsc1064_klett_nd2, single(fillmissing(POLIPHON2.aerBsc1064_klett_nd2(iGrp, :), missing_value)));
-netcdf.putVar(ncID, varID_err_aerBsc1064_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_nd2(iGrp, :), missing_value)));
+%% klett
+netcdf.putVar(ncID_klett, varID_aerBsc_klett_355, single(fillmissing(data.aerBsc355_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBscStd_klett_355, single(fillmissing(data.aerBscStd355_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc355_klett_d2, single(fillmissing(POLIPHON2.aerBsc355_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc355_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc355_klett_dc2, single(fillmissing(POLIPHON2.aerBsc355_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc355_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc355_klett_df2, single(fillmissing(POLIPHON2.aerBsc355_klett_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc355_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_aerBsc355_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc355_klett_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_err_aerBsc355_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc355_klett_nd2, single(fillmissing(POLIPHON2.aerBsc355_klett_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc355_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc355_klett_nd2(iGrp, :), missing_value)));
+
+netcdf.putVar(ncID_klett, varID_aerBsc_klett_532, single(fillmissing(data.aerBsc532_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBscStd_klett_532, single(fillmissing(data.aerBscStd532_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc532_klett_d2, single(fillmissing(POLIPHON2.aerBsc532_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc532_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc532_klett_dc2, single(fillmissing(POLIPHON2.aerBsc532_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc532_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc532_klett_df2, single(fillmissing(POLIPHON2.aerBsc532_klett_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc532_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_aerBsc532_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc532_klett_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_err_aerBsc532_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc532_klett_nd2, single(fillmissing(POLIPHON2.aerBsc532_klett_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc532_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc532_klett_nd2(iGrp, :), missing_value)));
+
+netcdf.putVar(ncID_klett, varID_aerBsc_klett_1064, single(fillmissing(data.aerBsc1064_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBscStd_klett_1064, single(fillmissing(data.aerBscStd1064_klett(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc1064_klett_d2, single(fillmissing(POLIPHON2.aerBsc1064_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc1064_klett_d2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_d2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc1064_klett_dc2, single(fillmissing(POLIPHON2.aerBsc1064_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc1064_klett_dc2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_dc2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc1064_klett_df2, single(fillmissing(POLIPHON2.aerBsc1064_klett_df2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc1064_klett_df2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_df2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_aerBsc1064_klett_nddf2, single(fillmissing(POLIPHON2.aerBsc1064_klett_nddf2(iGrp, :), missing_value)));
+%netcdf.putVar(ncID_klett, varID_err_aerBsc1064_klett_nddf2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_nddf2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_aerBsc1064_klett_nd2, single(fillmissing(POLIPHON2.aerBsc1064_klett_nd2(iGrp, :), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_aerBsc1064_klett_nd2, single(fillmissing(POLIPHON2.err_aerBsc1064_klett_nd2(iGrp, :), missing_value)));
+
+% extinction coeffs
+netcdf.putVar(ncID_klett, varID_ext_d_klett_355, single(fillmissing(POLIPHON2.ext_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_d_klett_532, single(fillmissing(POLIPHON2.ext_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_d_klett_1064, single(fillmissing(POLIPHON2.ext_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_cd_klett_355, single(fillmissing(POLIPHON2.ext_cd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_cd_klett_532, single(fillmissing(POLIPHON2.ext_cd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_cd_klett_1064, single(fillmissing(POLIPHON2.ext_cd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_fd_klett_355, single(fillmissing(POLIPHON2.ext_fd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_fd_klett_532, single(fillmissing(POLIPHON2.ext_fd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_fd_klett_1064, single(fillmissing(POLIPHON2.ext_fd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_ndm_klett_355, single(fillmissing(POLIPHON2.ext_ndm_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_ndm_klett_532, single(fillmissing(POLIPHON2.ext_ndm_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_ndm_klett_1064, single(fillmissing(POLIPHON2.ext_ndm_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_nds_klett_355, single(fillmissing(POLIPHON2.ext_nds_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_nds_klett_532, single(fillmissing(POLIPHON2.ext_nds_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_nds_klett_1064, single(fillmissing(POLIPHON2.ext_nds_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_bb_klett_355, single(fillmissing(POLIPHON2.ext_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_bb_klett_532, single(fillmissing(POLIPHON2.ext_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_bb_klett_1064, single(fillmissing(POLIPHON2.ext_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsf_klett_355, single(fillmissing(POLIPHON2.ext_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsf_klett_532, single(fillmissing(POLIPHON2.ext_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsf_klett_1064, single(fillmissing(POLIPHON2.ext_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsa_klett_355, single(fillmissing(POLIPHON2.ext_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsa_klett_532, single(fillmissing(POLIPHON2.ext_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vsa_klett_1064, single(fillmissing(POLIPHON2.ext_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vst_klett_355, single(fillmissing(POLIPHON2.ext_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vst_klett_532, single(fillmissing(POLIPHON2.ext_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_ext_vst_klett_1064, single(fillmissing(POLIPHON2.ext_vst_klett_1064(:, 1), missing_value)));
+
+% mass concentrations
+netcdf.putVar(ncID_klett, varID_m_d_klett_355, single(fillmissing(POLIPHON2.m_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_d_klett_532, single(fillmissing(POLIPHON2.m_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_d_klett_1064, single(fillmissing(POLIPHON2.m_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_cd_klett_355, single(fillmissing(POLIPHON2.m_cd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_cd_klett_532, single(fillmissing(POLIPHON2.m_cd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_cd_klett_1064, single(fillmissing(POLIPHON2.m_cd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_fd_klett_355, single(fillmissing(POLIPHON2.m_fd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_fd_klett_532, single(fillmissing(POLIPHON2.m_fd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_fd_klett_1064, single(fillmissing(POLIPHON2.m_fd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_ndm_klett_355, single(fillmissing(POLIPHON2.m_ndm_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_ndm_klett_532, single(fillmissing(POLIPHON2.m_ndm_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_ndm_klett_1064, single(fillmissing(POLIPHON2.m_ndm_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_nds_klett_355, single(fillmissing(POLIPHON2.m_nds_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_nds_klett_532, single(fillmissing(POLIPHON2.m_nds_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_nds_klett_1064, single(fillmissing(POLIPHON2.m_nds_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_bb_klett_355, single(fillmissing(POLIPHON2.m_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_bb_klett_532, single(fillmissing(POLIPHON2.m_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_bb_klett_1064, single(fillmissing(POLIPHON2.m_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsf_klett_355, single(fillmissing(POLIPHON2.m_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsf_klett_532, single(fillmissing(POLIPHON2.m_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsf_klett_1064, single(fillmissing(POLIPHON2.m_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsa_klett_355, single(fillmissing(POLIPHON2.m_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsa_klett_532, single(fillmissing(POLIPHON2.m_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vsa_klett_1064, single(fillmissing(POLIPHON2.m_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vst_klett_355, single(fillmissing(POLIPHON2.m_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vst_klett_532, single(fillmissing(POLIPHON2.m_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_m_vst_klett_1064, single(fillmissing(POLIPHON2.m_vst_klett_1064(:, 1), missing_value)));
+
+% number concentrations
+netcdf.putVar(ncID_klett, varID_n_100_d_klett_355, single(fillmissing(POLIPHON2.n_100_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_100_d_klett_532, single(fillmissing(POLIPHON2.n_100_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_100_d_klett_1064, single(fillmissing(POLIPHON2.n_100_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_d_klett_355, single(fillmissing(POLIPHON2.n_250_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_d_klett_532, single(fillmissing(POLIPHON2.n_250_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_d_klett_1064, single(fillmissing(POLIPHON2.n_250_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_c_klett_355, single(fillmissing(POLIPHON2.n_50_c_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_c_klett_532, single(fillmissing(POLIPHON2.n_50_c_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_c_klett_1064, single(fillmissing(POLIPHON2.n_50_c_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_c_klett_355, single(fillmissing(POLIPHON2.n_250_c_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_c_klett_532, single(fillmissing(POLIPHON2.n_250_c_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_c_klett_1064, single(fillmissing(POLIPHON2.n_250_c_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_m_klett_355, single(fillmissing(POLIPHON2.n_50_m_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_m_klett_532, single(fillmissing(POLIPHON2.n_50_m_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_m_klett_1064, single(fillmissing(POLIPHON2.n_50_m_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_m_klett_355, single(fillmissing(POLIPHON2.n_250_m_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_m_klett_532, single(fillmissing(POLIPHON2.n_250_m_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_m_klett_1064, single(fillmissing(POLIPHON2.n_250_m_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_bb_klett_355, single(fillmissing(POLIPHON2.n_50_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_bb_klett_532, single(fillmissing(POLIPHON2.n_50_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_bb_klett_1064, single(fillmissing(POLIPHON2.n_50_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_bb_klett_355, single(fillmissing(POLIPHON2.n_250_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_bb_klett_532, single(fillmissing(POLIPHON2.n_250_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_bb_klett_1064, single(fillmissing(POLIPHON2.n_250_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsf_klett_355, single(fillmissing(POLIPHON2.n_50_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsf_klett_532, single(fillmissing(POLIPHON2.n_50_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsf_klett_1064, single(fillmissing(POLIPHON2.n_50_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsf_klett_355, single(fillmissing(POLIPHON2.n_250_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsf_klett_532, single(fillmissing(POLIPHON2.n_250_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsf_klett_1064, single(fillmissing(POLIPHON2.n_250_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsa_klett_355, single(fillmissing(POLIPHON2.n_50_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsa_klett_532, single(fillmissing(POLIPHON2.n_50_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vsa_klett_1064, single(fillmissing(POLIPHON2.n_50_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsa_klett_355, single(fillmissing(POLIPHON2.n_250_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsa_klett_532, single(fillmissing(POLIPHON2.n_250_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vsa_klett_1064, single(fillmissing(POLIPHON2.n_250_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vst_klett_355, single(fillmissing(POLIPHON2.n_50_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vst_klett_532, single(fillmissing(POLIPHON2.n_50_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_50_vst_klett_1064, single(fillmissing(POLIPHON2.n_50_vst_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vst_klett_355, single(fillmissing(POLIPHON2.n_250_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vst_klett_532, single(fillmissing(POLIPHON2.n_250_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_250_vst_klett_1064, single(fillmissing(POLIPHON2.n_250_vst_klett_1064(:, 1), missing_value)));
+
+% surface area concentrations
+netcdf.putVar(ncID_klett, varID_sa_d_klett_355, single(fillmissing(POLIPHON2.sa_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_d_klett_532, single(fillmissing(POLIPHON2.sa_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_d_klett_1064, single(fillmissing(POLIPHON2.sa_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_c_klett_355, single(fillmissing(POLIPHON2.sa_c_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_c_klett_532, single(fillmissing(POLIPHON2.sa_c_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_c_klett_1064, single(fillmissing(POLIPHON2.sa_c_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_m_klett_355, single(fillmissing(POLIPHON2.sa_m_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_m_klett_532, single(fillmissing(POLIPHON2.sa_m_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_m_klett_1064, single(fillmissing(POLIPHON2.sa_m_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_bb_klett_355, single(fillmissing(POLIPHON2.sa_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_bb_klett_532, single(fillmissing(POLIPHON2.sa_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_bb_klett_1064, single(fillmissing(POLIPHON2.sa_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsf_klett_355, single(fillmissing(POLIPHON2.sa_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsf_klett_532, single(fillmissing(POLIPHON2.sa_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsf_klett_1064, single(fillmissing(POLIPHON2.sa_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsa_klett_355, single(fillmissing(POLIPHON2.sa_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsa_klett_532, single(fillmissing(POLIPHON2.sa_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vsa_klett_1064, single(fillmissing(POLIPHON2.sa_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vst_klett_355, single(fillmissing(POLIPHON2.sa_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vst_klett_532, single(fillmissing(POLIPHON2.sa_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_sa_vst_klett_1064, single(fillmissing(POLIPHON2.sa_vst_klett_1064(:, 1), missing_value)));
+
+% errors extinction
+netcdf.putVar(ncID_klett, varID_err_ext_d_klett_355, single(fillmissing(POLIPHON2.err_ext_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_d_klett_532, single(fillmissing(POLIPHON2.err_ext_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_d_klett_1064, single(fillmissing(POLIPHON2.err_ext_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_cd_klett_355, single(fillmissing(POLIPHON2.err_ext_cd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_cd_klett_532, single(fillmissing(POLIPHON2.err_ext_cd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_cd_klett_1064, single(fillmissing(POLIPHON2.err_ext_cd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_fd_klett_355, single(fillmissing(POLIPHON2.err_ext_fd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_fd_klett_532, single(fillmissing(POLIPHON2.err_ext_fd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_fd_klett_1064, single(fillmissing(POLIPHON2.err_ext_fd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_ndm_klett_355, single(fillmissing(POLIPHON2.err_ext_ndm_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_ndm_klett_532, single(fillmissing(POLIPHON2.err_ext_ndm_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_ndm_klett_1064, single(fillmissing(POLIPHON2.err_ext_ndm_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_nds_klett_355, single(fillmissing(POLIPHON2.err_ext_nds_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_nds_klett_532, single(fillmissing(POLIPHON2.err_ext_nds_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_nds_klett_1064, single(fillmissing(POLIPHON2.err_ext_nds_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_bb_klett_355, single(fillmissing(POLIPHON2.err_ext_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_bb_klett_532, single(fillmissing(POLIPHON2.err_ext_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_bb_klett_1064, single(fillmissing(POLIPHON2.err_ext_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsf_klett_355, single(fillmissing(POLIPHON2.err_ext_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsf_klett_532, single(fillmissing(POLIPHON2.err_ext_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsf_klett_1064, single(fillmissing(POLIPHON2.err_ext_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsa_klett_355, single(fillmissing(POLIPHON2.err_ext_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsa_klett_532, single(fillmissing(POLIPHON2.err_ext_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vsa_klett_1064, single(fillmissing(POLIPHON2.err_ext_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vst_klett_355, single(fillmissing(POLIPHON2.err_ext_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vst_klett_532, single(fillmissing(POLIPHON2.err_ext_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_ext_vst_klett_1064, single(fillmissing(POLIPHON2.err_ext_vst_klett_1064(:, 1), missing_value)));
+
+% errors mass
+netcdf.putVar(ncID_klett, varID_err_m_d_klett_355, single(fillmissing(POLIPHON2.err_m_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_d_klett_532, single(fillmissing(POLIPHON2.err_m_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_d_klett_1064, single(fillmissing(POLIPHON2.err_m_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_cd_klett_355, single(fillmissing(POLIPHON2.err_m_cd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_cd_klett_532, single(fillmissing(POLIPHON2.err_m_cd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_cd_klett_1064, single(fillmissing(POLIPHON2.err_m_cd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_fd_klett_355, single(fillmissing(POLIPHON2.err_m_fd_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_fd_klett_532, single(fillmissing(POLIPHON2.err_m_fd_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_fd_klett_1064, single(fillmissing(POLIPHON2.err_m_fd_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_ndm_klett_355, single(fillmissing(POLIPHON2.err_m_ndm_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_ndm_klett_532, single(fillmissing(POLIPHON2.err_m_ndm_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_ndm_klett_1064, single(fillmissing(POLIPHON2.err_m_ndm_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_nds_klett_355, single(fillmissing(POLIPHON2.err_m_nds_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_nds_klett_532, single(fillmissing(POLIPHON2.err_m_nds_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_nds_klett_1064, single(fillmissing(POLIPHON2.err_m_nds_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_bb_klett_355, single(fillmissing(POLIPHON2.err_m_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_bb_klett_532, single(fillmissing(POLIPHON2.err_m_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_bb_klett_1064, single(fillmissing(POLIPHON2.err_m_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsf_klett_355, single(fillmissing(POLIPHON2.err_m_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsf_klett_532, single(fillmissing(POLIPHON2.err_m_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsf_klett_1064, single(fillmissing(POLIPHON2.err_m_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsa_klett_355, single(fillmissing(POLIPHON2.err_m_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsa_klett_532, single(fillmissing(POLIPHON2.err_m_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vsa_klett_1064, single(fillmissing(POLIPHON2.err_m_vsa_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vst_klett_355, single(fillmissing(POLIPHON2.err_m_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vst_klett_532, single(fillmissing(POLIPHON2.err_m_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_err_m_vst_klett_1064, single(fillmissing(POLIPHON2.err_m_vst_klett_1064(:, 1), missing_value)));
+
+% ccn
+netcdf.putVar(ncID_klett, varID_n_ccn_klett_355, single(fillmissing(POLIPHON2.n_ccn_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_klett_532, single(fillmissing(POLIPHON2.n_ccn_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_klett_1064, single(fillmissing(POLIPHON2.n_ccn_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_d_klett_355, single(fillmissing(POLIPHON2.n_ccn_d_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_d_klett_532, single(fillmissing(POLIPHON2.n_ccn_d_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_d_klett_1064, single(fillmissing(POLIPHON2.n_ccn_d_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_c_klett_355, single(fillmissing(POLIPHON2.n_ccn_c_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_c_klett_532, single(fillmissing(POLIPHON2.n_ccn_c_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_c_klett_1064, single(fillmissing(POLIPHON2.n_ccn_c_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_m_klett_355, single(fillmissing(POLIPHON2.n_ccn_m_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_m_klett_532, single(fillmissing(POLIPHON2.n_ccn_m_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_m_klett_1064, single(fillmissing(POLIPHON2.n_ccn_m_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_bb_klett_355, single(fillmissing(POLIPHON2.n_ccn_bb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_bb_klett_532, single(fillmissing(POLIPHON2.n_ccn_bb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_bb_klett_1064, single(fillmissing(POLIPHON2.n_ccn_bb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsf_klett_355, single(fillmissing(POLIPHON2.n_ccn_vsf_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsf_klett_532, single(fillmissing(POLIPHON2.n_ccn_vsf_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsf_klett_1064, single(fillmissing(POLIPHON2.n_ccn_vsf_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vst_klett_355, single(fillmissing(POLIPHON2.n_ccn_vst_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vst_klett_532, single(fillmissing(POLIPHON2.n_ccn_vst_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vst_klett_1064, single(fillmissing(POLIPHON2.n_ccn_vst_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsa_klett_355, single(fillmissing(POLIPHON2.n_ccn_vsa_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsa_klett_532, single(fillmissing(POLIPHON2.n_ccn_vsa_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_ccn_vsa_klett_1064, single(fillmissing(POLIPHON2.n_ccn_vsa_klett_1064(:, 1), missing_value)));
+
+% inp
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_d15_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_n12_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_s15_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_d_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_d_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_klett_355, single(fillmissing(POLIPHON2.n_inp_d_d15_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_klett_532, single(fillmissing(POLIPHON2.n_inp_d_d15_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_d15_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_d15_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_klett_355, single(fillmissing(POLIPHON2.n_inp_d_n12_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_klett_532, single(fillmissing(POLIPHON2.n_inp_d_n12_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_n12_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_n12_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_klett_355, single(fillmissing(POLIPHON2.n_inp_d_s15_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_klett_532, single(fillmissing(POLIPHON2.n_inp_d_s15_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_d_s15_klett_1064, single(fillmissing(POLIPHON2.n_inp_d_s15_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_c_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_c_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_c_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_c_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_c_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_m_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_m_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_m_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_m_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_m_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_bb_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_bb_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_bb_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_bb_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_bb_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_vsf_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_vsf_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_vsf_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsf_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_vsf_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_vsa_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_vsa_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_vsa_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vsa_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_vsa_d10_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, single(fillmissing(POLIPHON2.n_inp_vst_d10_amb_klett_1064(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_klett_355, single(fillmissing(POLIPHON2.n_inp_vst_d10_klett_355(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_klett_532, single(fillmissing(POLIPHON2.n_inp_vst_d10_klett_532(:, 1), missing_value)));
+netcdf.putVar(ncID_klett, varID_n_inp_vst_d10_klett_1064, single(fillmissing(POLIPHON2.n_inp_vst_d10_klett_1064(:, 1), missing_value)));
 
 % re enter define mode
-netcdf.reDef(ncID);
-
+netcdf.reDef(ncID_raman);
+netcdf.reDef(ncID_klett);
 %% write attributes to the variables
-
+%raman
 % altitude
-netcdf.putAtt(ncID, varID_altitude, 'unit', 'm');
-netcdf.putAtt(ncID, varID_altitude, 'long_name', 'Height of lidar above mean sea level');
-netcdf.putAtt(ncID, varID_altitude, 'standard_name', 'altitude');
+netcdf.putAtt(ncID_raman, varID_altitude_raman, 'unit', 'm');
+netcdf.putAtt(ncID_raman, varID_altitude_raman, 'long_name', 'Height of lidar above mean sea level');
+netcdf.putAtt(ncID_raman, varID_altitude_raman, 'standard_name', 'altitude');
 
 % longitude
-netcdf.putAtt(ncID, varID_longitude, 'unit', 'degrees_east');
-netcdf.putAtt(ncID, varID_longitude, 'long_name', 'Longitude of the site');
-netcdf.putAtt(ncID, varID_longitude, 'standard_name', 'longitude');
-netcdf.putAtt(ncID, varID_longitude, 'axis', 'X');
+netcdf.putAtt(ncID_raman, varID_longitude_raman, 'unit', 'degrees_east');
+netcdf.putAtt(ncID_raman, varID_longitude_raman, 'long_name', 'Longitude of the site');
+netcdf.putAtt(ncID_raman, varID_longitude_raman, 'standard_name', 'longitude');
+netcdf.putAtt(ncID_raman, varID_longitude_raman, 'axis', 'X');
 
 % latitude
-netcdf.putAtt(ncID, varID_latitude, 'unit', 'degrees_north');
-netcdf.putAtt(ncID, varID_latitude, 'long_name', 'Latitude of the site');
-netcdf.putAtt(ncID, varID_latitude, 'standard_name', 'latitude');
-netcdf.putAtt(ncID, varID_latitude, 'axis', 'Y');
+netcdf.putAtt(ncID_raman, varID_latitude_raman, 'unit', 'degrees_north');
+netcdf.putAtt(ncID_raman, varID_latitude_raman, 'long_name', 'Latitude of the site');
+netcdf.putAtt(ncID_raman, varID_latitude_raman, 'standard_name', 'latitude');
+netcdf.putAtt(ncID_raman, varID_latitude_raman, 'axis', 'Y');
 
 % start_time
-netcdf.putAtt(ncID, varID_startTime, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
-netcdf.putAtt(ncID, varID_startTime, 'long_name', 'Time UTC to start the current measurement');
-netcdf.putAtt(ncID, varID_startTime, 'standard_name', 'time');
-netcdf.putAtt(ncID, varID_startTime, 'calendar', 'julian');
+netcdf.putAtt(ncID_raman, varID_startTime_raman, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_raman, varID_startTime_raman, 'long_name', 'Time UTC to start the current measurement');
+netcdf.putAtt(ncID_raman, varID_startTime_raman, 'standard_name', 'time');
+netcdf.putAtt(ncID_raman, varID_startTime_raman, 'calendar', 'julian');
 
 % end_time
-netcdf.putAtt(ncID, varID_endTime, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
-netcdf.putAtt(ncID, varID_endTime, 'long_name', 'Time UTC to finish the current measurement');
-netcdf.putAtt(ncID, varID_endTime, 'standard_name', 'time');
-netcdf.putAtt(ncID, varID_endTime, 'calendar', 'julian');
+netcdf.putAtt(ncID_raman, varID_endTime_raman, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_raman, varID_endTime_raman, 'long_name', 'Time UTC to finish the current measurement');
+netcdf.putAtt(ncID_raman, varID_endTime_raman, 'standard_name', 'time');
+netcdf.putAtt(ncID_raman, varID_endTime_raman, 'calendar', 'julian');
 
 % height
-netcdf.putAtt(ncID, varID_height, 'unit', 'm');
-netcdf.putAtt(ncID, varID_height, 'long_name', 'Height above the ground');
-netcdf.putAtt(ncID, varID_height, 'standard_name', 'height');
-netcdf.putAtt(ncID, varID_height, 'axis', 'Z');
+netcdf.putAtt(ncID_raman, varID_height_raman, 'unit', 'm');
+netcdf.putAtt(ncID_raman, varID_height_raman, 'long_name', 'Height above the ground');
+netcdf.putAtt(ncID_raman, varID_height_raman, 'standard_name', 'height');
+netcdf.putAtt(ncID_raman, varID_height_raman, 'axis', 'Z');
 
 % time
-netcdf.putAtt(ncID, varID_time, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
-netcdf.putAtt(ncID, varID_time, 'long_name', 'Time UTC');
-netcdf.putAtt(ncID, varID_time, 'standard_name', 'time');
-netcdf.putAtt(ncID, varID_time, 'axis', 'T');
-netcdf.putAtt(ncID, varID_time, 'calendar', 'julian');
+netcdf.putAtt(ncID_raman, varID_time_raman, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_raman, varID_time_raman, 'long_name', 'Time UTC');
+netcdf.putAtt(ncID_raman, varID_time_raman, 'standard_name', 'time');
+netcdf.putAtt(ncID_raman, varID_time_raman, 'axis', 'T');
+netcdf.putAtt(ncID_raman, varID_time_raman, 'calendar', 'julian');
 
+% klett
+% altitude
+netcdf.putAtt(ncID_klett, varID_altitude_klett, 'unit', 'm');
+netcdf.putAtt(ncID_klett, varID_altitude_klett, 'long_name', 'Height of lidar above mean sea level');
+netcdf.putAtt(ncID_klett, varID_altitude_klett, 'standard_name', 'altitude');
+
+% longitude
+netcdf.putAtt(ncID_klett, varID_longitude_klett, 'unit', 'degrees_east');
+netcdf.putAtt(ncID_klett, varID_longitude_klett, 'long_name', 'Longitude of the site');
+netcdf.putAtt(ncID_klett, varID_longitude_klett, 'standard_name', 'longitude');
+netcdf.putAtt(ncID_klett, varID_longitude_klett, 'axis', 'X');
+
+% latitude
+netcdf.putAtt(ncID_klett, varID_latitude_klett, 'unit', 'degrees_north');
+netcdf.putAtt(ncID_klett, varID_latitude_klett, 'long_name', 'Latitude of the site');
+netcdf.putAtt(ncID_klett, varID_latitude_klett, 'standard_name', 'latitude');
+netcdf.putAtt(ncID_klett, varID_latitude_klett, 'axis', 'Y');
+
+% start_time
+netcdf.putAtt(ncID_klett, varID_startTime_klett, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_klett, varID_startTime_klett, 'long_name', 'Time UTC to start the current measurement');
+netcdf.putAtt(ncID_klett, varID_startTime_klett, 'standard_name', 'time');
+netcdf.putAtt(ncID_klett, varID_startTime_klett, 'calendar', 'julian');
+
+% end_time
+netcdf.putAtt(ncID_klett, varID_endTime_klett, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_klett, varID_endTime_klett, 'long_name', 'Time UTC to finish the current measurement');
+netcdf.putAtt(ncID_klett, varID_endTime_klett, 'standard_name', 'time');
+netcdf.putAtt(ncID_klett, varID_endTime_klett, 'calendar', 'julian');
+
+% height
+netcdf.putAtt(ncID_klett, varID_height_klett, 'unit', 'm');
+netcdf.putAtt(ncID_klett, varID_height_klett, 'long_name', 'Height above the ground');
+netcdf.putAtt(ncID_klett, varID_height_klett, 'standard_name', 'height');
+netcdf.putAtt(ncID_klett, varID_height_klett, 'axis', 'Z');
+
+% time
+netcdf.putAtt(ncID_klett, varID_time_klett, 'unit', 'seconds since 1970-01-01 00:00:00 UTC');
+netcdf.putAtt(ncID_klett, varID_time_klett, 'long_name', 'Time UTC');
+netcdf.putAtt(ncID_klett, varID_time_klett, 'standard_name', 'time');
+netcdf.putAtt(ncID_klett, varID_time_klett, 'axis', 'T');
+netcdf.putAtt(ncID_klett, varID_time_klett, 'calendar', 'julian');
+%% raman Extinction, Mass, Volume, INP, CCN,.. raman
+
+% extinction
+% dust
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_355, 'long_name', 'Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_355, 'standard_name', 'Ad_raman_355.');  
+
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_532, 'long_name', 'Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_532, 'standard_name', 'Ad_raman_532.');  
+
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_1064, 'long_name', 'Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_d_raman_1064, 'standard_name', 'Ad_raman_1064.');  
+
+% coarse dust
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_355, 'long_name', 'Coarse Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_355, 'standard_name', 'Acd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_532, 'long_name', 'Coarse Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_532, 'standard_name', 'Acd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_1064, 'long_name', 'Coarse Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_cd_raman_1064, 'standard_name', 'Acd_raman_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_355, 'long_name', 'Fine Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_355, 'standard_name', 'Afd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_532, 'long_name', 'Fine Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_532, 'standard_name', 'Afd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_1064, 'long_name', 'Fine Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_fd_raman_1064, 'standard_name', 'Afd_raman_1064.'); 
+
+% non-dust marine
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_355, 'long_name', 'Non-Dust marine ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_355, 'standard_name', 'Andm1_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_532, 'long_name', 'Non-Dust marine ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_532, 'standard_name', 'Andm1_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_1064, 'long_name', 'Non-Dust marine ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_ndm_raman_1064, 'standard_name', 'Andm1_raman_1064.'); 
+
+% non-dust smoke
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_355, 'long_name', 'Non-Dust smoke ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_355, 'standard_name', 'Ands1_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_532, 'long_name', 'Non-Dust smoke ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_532, 'standard_name', 'Ands1_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_1064, 'long_name', 'Non-Dust smoke ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_nds_raman_1064, 'standard_name', 'Ands1_raman_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_355, 'long_name', 'Biomass burning smoke ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_355, 'standard_name', 'Abb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_532, 'long_name', 'Biomass burning smoke ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_532, 'standard_name', 'Abb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_1064, 'long_name', 'Biomass burning smoke ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_bb_raman_1064, 'standard_name', 'Abb_raman_1064.'); 
+
+% fresh volcanic sulfate
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_355, 'long_name', 'fresh volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_355, 'standard_name', 'Avsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_532, 'long_name', 'fresh volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_532, 'standard_name', 'Avsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_1064, 'long_name', 'fresh volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsf_raman_1064, 'standard_name', 'Avsf_raman_1064.'); 
+
+% aged volcanic sulfate
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_355, 'long_name', 'aged volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_355, 'standard_name', 'Avsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_532, 'long_name', 'aged volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_532, 'standard_name', 'Avsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_1064, 'long_name', 'aged volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vsa_raman_1064, 'standard_name', 'Avsa_raman_1064.'); 
+
+% tropospheric volcanic sulfate
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_355, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_355, 'standard_name', 'Avst_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_532, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_532, 'standard_name', 'Avst_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_1064, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_ext_vst_raman_1064, 'standard_name', 'Avst_raman_1064.'); 
+
+% mass 
+
+% dust
+netcdf.putAtt(ncID_raman, varID_m_d_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_355, 'long_name', 'Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_355, 'standard_name', 'm_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_d_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_532, 'long_name', 'Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_532, 'standard_name', 'm_d_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_d_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_1064, 'long_name', 'Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_d_raman_1064, 'standard_name', 'm_d_raman_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_355, 'long_name', 'Coarse Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_355, 'standard_name', 'm_cd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_532, 'long_name', 'Coarse Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_532, 'standard_name', 'm_cd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_1064, 'long_name', 'Coarse Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_cd_raman_1064, 'standard_name', 'm_cd_raman_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_355, 'long_name', 'Fine Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_355, 'standard_name', 'm_fd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_532, 'long_name', 'Fine Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_532, 'standard_name', 'm_fd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_1064, 'long_name', 'Fine Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_fd_raman_1064, 'standard_name', 'm_fd_raman_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_355, 'long_name', 'Non-Dust marine mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_355, 'standard_name', 'm_ndm_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_532, 'long_name', 'Non-Dust marine mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_532, 'standard_name', 'm_ndm_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_1064, 'long_name', 'Non-Dust marine mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_ndm_raman_1064, 'standard_name', 'm_ndm_raman_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_355, 'long_name', 'Non-Dust smoke mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_355, 'standard_name', 'm_nds_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_532, 'long_name', 'Non-Dust smoke mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_532, 'standard_name', 'm_nds_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_1064, 'long_name', 'Non-Dust smoke mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_nds_raman_1064, 'standard_name', 'm_nds_raman_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_355, 'long_name', 'Biomass burning mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_355, 'standard_name', 'm_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_532, 'long_name', 'Biomass burning mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_532, 'standard_name', 'm_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_1064, 'long_name', 'Biomass burning mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_bb_raman_1064, 'standard_name', 'm_bb_raman_1064.'); 
+
+% vsf
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_355, 'long_name', 'fresh volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_355, 'standard_name', 'm_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_532, 'long_name', 'fresh volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_532, 'standard_name', 'm_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_1064, 'long_name', 'fresh volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsf_raman_1064, 'standard_name', 'm_vsf_raman_1064.'); 
+
+% vsa
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_355, 'long_name', 'aged volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_355, 'standard_name', 'm_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_532, 'long_name', 'aged volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_532, 'standard_name', 'm_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_1064, 'long_name', 'aged volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vsa_raman_1064, 'standard_name', 'm_vsa_raman_1064.'); 
+
+% vst
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_355, 'long_name', 'tropospheric volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_355, 'standard_name', 'm_vst_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_532, 'long_name', 'tropospheric volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_532, 'standard_name', 'm_vst_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_1064, 'long_name', 'tropospheric volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_m_vst_raman_1064, 'standard_name', 'm_vst_raman_1064.');
+
+% number concentrations
+
+% dust 100
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_355, 'long_name', 'Dust Number Conc. >100nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_355, 'standard_name', 'n_100_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_532, 'long_name', 'Dust Number Conc. >100nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_532, 'standard_name', 'n_100_d_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_1064, 'long_name', 'Dust Number Conc. >100nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_100_d_raman_1064, 'standard_name', 'n_100_d_raman_1064.'); 
+
+% dust 250
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_355, 'long_name', 'Dust Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_355, 'standard_name', 'n_250_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_532, 'long_name', 'Dust Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_532, 'standard_name', 'n_250_d_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_1064, 'long_name', 'Dust Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_d_raman_1064, 'standard_name', 'n_250_d_raman_1064.'); 
+
+% continental 50
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_355, 'long_name', 'Continental Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_355, 'standard_name', 'n_50_c_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_532, 'long_name', 'Continental Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_532, 'standard_name', 'n_50_c_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_1064, 'long_name', 'Continental Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_c_raman_1064, 'standard_name', 'n_50_c_raman_1064.'); 
+
+% continental 250
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_355, 'long_name', 'Continental Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_355, 'standard_name', 'n_250_c_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_532, 'long_name', 'Continental Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_532, 'standard_name', 'n_250_c_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_1064, 'long_name', 'Continental Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_c_raman_1064, 'standard_name', 'n_250_c_raman_1064.'); 
+
+% marine 50
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_355, 'long_name', 'Marine Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_355, 'standard_name', 'n_50_m_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_532, 'long_name', 'Marine Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_532, 'standard_name', 'n_50_m_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_1064, 'long_name', 'Marine Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_m_raman_1064, 'standard_name', 'n_50_m_raman_1064.'); 
+
+% marine 250
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_355, 'long_name', 'Marine Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_355, 'standard_name', 'n_250_m_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_532, 'long_name', 'Marine Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_532, 'standard_name', 'n_250_m_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_1064, 'long_name', 'Marine Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_m_raman_1064, 'standard_name', 'n_250_m_raman_1064.'); 
+
+% biomass burning 50
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_355, 'long_name', 'Biomass Burning Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_355, 'standard_name', 'n_50_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_532, 'long_name', 'Biomass Burning Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_532, 'standard_name', 'n_50_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_1064, 'long_name', 'Biomass Burning Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_bb_raman_1064, 'standard_name', 'n_50_bb_raman_1064.'); 
+
+% biomass burning 250
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_355, 'long_name', 'Biomass Burning Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_355, 'standard_name', 'n_250_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_532, 'long_name', 'Biomass Burning Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_532, 'standard_name', 'n_250_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_1064, 'long_name', 'Biomass Burning Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_bb_raman_1064, 'standard_name', 'n_250_bb_raman_1064.'); 
+
+% vsf 50
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_355, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_355, 'standard_name', 'n_50_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_532, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_532, 'standard_name', 'n_50_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_1064, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsf_raman_1064, 'standard_name', 'n_50_vsf_raman_1064.'); 
+
+% vsf 250
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_355, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_355, 'standard_name', 'n_250_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_532, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_532, 'standard_name', 'n_250_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_1064, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsf_raman_1064, 'standard_name', 'n_250_vsf_raman_1064.'); 
+
+% vsa 50
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_355, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_355, 'standard_name', 'n_50_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_532, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_532, 'standard_name', 'n_50_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_1064, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vsa_raman_1064, 'standard_name', 'n_50_vsa_raman_1064.'); 
+
+% vsa 250
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_355, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_355, 'standard_name', 'n_250_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_532, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_532, 'standard_name', 'n_250_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_1064, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vsa_raman_1064, 'standard_name', 'n_250_vsa_raman_1064.'); 
+
+% vst 50
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_355, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_355, 'standard_name', 'n_50_vst_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_532, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_532, 'standard_name', 'n_50_vst_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_1064, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_50_vst_raman_1064, 'standard_name', 'n_50_vst_raman_1064.'); 
+
+% vst 250
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_355, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_355, 'standard_name', 'n_250_vst_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_532, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_532, 'standard_name', 'n_250_vst_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_1064, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_250_vst_raman_1064, 'standard_name', 'n_250_vst_raman_1064.');
+
+% surface area conc
+
+% dust
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_355, 'long_name', 'Dust Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_355, 'standard_name', 'sa_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_532, 'long_name', 'Dust Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_532, 'standard_name', 'sa_d_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_1064, 'long_name', 'Dust Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_d_raman_1064, 'standard_name', 'sa_d_raman_1064.'); 
+
+% continental
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_355, 'long_name', 'Continental Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_355, 'standard_name', 'sa_c_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_532, 'long_name', 'Continental Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_532, 'standard_name', 'sa_c_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_1064, 'long_name', 'Continental Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_c_raman_1064, 'standard_name', 'sa_c_raman_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_355, 'long_name', 'Marine Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_355, 'standard_name', 'sa_m_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_532, 'long_name', 'Marine Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_532, 'standard_name', 'sa_m_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_1064, 'long_name', 'Marine Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_m_raman_1064, 'standard_name', 'sa_m_raman_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_355, 'long_name', 'Biomass Burning Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_355, 'standard_name', 'sa_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_532, 'long_name', 'Biomass Burning Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_532, 'standard_name', 'sa_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_1064, 'long_name', 'Biomass Burning Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_bb_raman_1064, 'standard_name', 'sa_bb_raman_1064.'); 
+
+% fresh volcanic
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_355, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_355, 'standard_name', 'sa_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_532, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_532, 'standard_name', 'sa_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_1064, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsf_raman_1064, 'standard_name', 'sa_vsf_raman_1064.'); 
+
+% aged volcanic
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_355, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_355, 'standard_name', 'sa_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_532, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_532, 'standard_name', 'sa_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_1064, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vsa_raman_1064, 'standard_name', 'sa_vsa_raman_1064.'); 
+
+% trop. volcanic
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_355, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_355, 'standard_name', 'sa_vst_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_532, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_532, 'standard_name', 'sa_vst_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_1064, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_sa_vst_raman_1064, 'standard_name', 'sa_vst_raman_1064.');
+
+% errors
+% extinction
+% dust
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_355, 'long_name', 'Error Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_355, 'standard_name', 'err_ext_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_532, 'long_name', 'Error Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_532, 'standard_name', 'err_ext_d_raman_532.'); 
+
+
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_1064, 'long_name', 'Error Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_d_raman_1064, 'standard_name', 'err_ext_d_raman_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_355, 'long_name', 'Error Coarse Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_355, 'standard_name', 'err_ext_cd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_532, 'long_name', 'Error Coarse Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_532, 'standard_name', 'err_ext_cd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_1064, 'long_name', 'Error Coarse Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_cd_raman_1064, 'standard_name', 'err_ext_cd_raman_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_355, 'long_name', 'Error Fine Dust ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_355, 'standard_name', 'err_ext_fd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_532, 'long_name', 'Error Fine Dust ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_532, 'standard_name', 'err_ext_fd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_1064, 'long_name', 'Error Fine Dust ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_fd_raman_1064, 'standard_name', 'err_ext_fd_raman_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_355, 'long_name', 'Error Non-Dust marine ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_355, 'standard_name', 'err_ext_ndm_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_532, 'long_name', 'Error Non-Dust marine ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_532, 'standard_name', 'err_ext_ndm_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_1064, 'long_name', 'Error Non-Dust marine ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_ndm_raman_1064, 'standard_name', 'err_ext_ndm_raman_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_355, 'long_name', 'Error Non-Dust smoke ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_355, 'standard_name', 'err_ext_nds_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_532, 'long_name', 'Error Non-Dust smoke ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_532, 'standard_name', 'err_ext_nds_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_1064, 'long_name', 'Error Non-Dust smoke ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_nds_raman_1064, 'standard_name', 'err_ext_nds_raman_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_355, 'long_name', 'Error Biomass burning ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_355, 'standard_name', 'err_ext_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_532, 'long_name', 'Error Biomass burning ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_532, 'standard_name', 'err_ext_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_1064, 'long_name', 'Error Biomass burning ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_bb_raman_1064, 'standard_name', 'err_ext_bb_raman_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_355, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_355, 'standard_name', 'err_ext_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_532, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_532, 'standard_name', 'err_ext_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_1064, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsf_raman_1064, 'standard_name', 'err_ext_vsf_raman_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_355, 'long_name', 'Error aged volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_355, 'standard_name', 'err_ext_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_532, 'long_name', 'Error aged volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_532, 'standard_name', 'err_ext_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_1064, 'long_name', 'Error aged volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vsa_raman_1064, 'standard_name', 'err_ext_vsa_raman_1064.'); 
+
+% tropos. vs
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_355, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_355, 'standard_name', 'err_ext_vst_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_532, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_532, 'standard_name', 'err_ext_vst_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_1064, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_ext_vst_raman_1064, 'standard_name', 'err_ext_vst_raman_1064.');
+
+% mass
+% dust
+
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_355, 'long_name', 'Error Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_355, 'standard_name', 'err_m_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_532, 'long_name', 'Error Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_532, 'standard_name', 'err_m_d_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_1064, 'long_name', 'Error Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_d_raman_1064, 'standard_name', 'err_m_d_raman_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_355, 'long_name', 'Error Coarse Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_355, 'standard_name', 'err_m_cd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_532, 'long_name', 'Error Coarse Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_532, 'standard_name', 'err_m_cd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_1064, 'long_name', 'Error Coarse Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_cd_raman_1064, 'standard_name', 'err_m_cd_raman_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_355, 'long_name', 'Error Fine Dust mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_355, 'standard_name', 'err_m_fd_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_532, 'long_name', 'Error Fine Dust mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_532, 'standard_name', 'err_m_fd_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_1064, 'long_name', 'Error Fine Dust mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_fd_raman_1064, 'standard_name', 'err_m_fd_raman_1064.'); 
+
+% marine 
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_355, 'long_name', 'Error Non-Dust marine mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_355, 'standard_name', 'err_m_ndm_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_532, 'long_name', 'Error Non-Dust marine mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_532, 'standard_name', 'err_m_ndm_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_1064, 'long_name', 'Error Non-Dust marine mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_ndm_raman_1064, 'standard_name', 'err_m_ndm_raman_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_355, 'long_name', 'Error Non-Dust smoke mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_355, 'standard_name', 'err_m_nds_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_532, 'long_name', 'Error Non-Dust smoke mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_532, 'standard_name', 'err_m_nds_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_1064, 'long_name', 'Error Non-Dust smoke mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_nds_raman_1064, 'standard_name', 'err_m_nds_raman_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_355, 'long_name', 'Error Biomass burning mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_355, 'standard_name', 'err_m_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_532, 'long_name', 'Error Biomass burning mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_532, 'standard_name', 'err_m_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_1064, 'long_name', 'Error Biomass burning mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_bb_raman_1064, 'standard_name', 'err_m_bb_raman_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_355, 'long_name', 'Error fresh volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_355, 'standard_name', 'err_m_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_532, 'long_name', 'Error fresh volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_532, 'standard_name', 'err_m_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_1064, 'long_name', 'Error fresh volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsf_raman_1064, 'standard_name', 'err_m_vsf_raman_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_355, 'long_name', 'Error aged volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_355, 'standard_name', 'err_m_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_532, 'long_name', 'Error aged volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_532, 'standard_name', 'err_m_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_1064, 'long_name', 'Error aged volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vsa_raman_1064, 'standard_name', 'err_m_vsa_raman_1064.'); 
+
+% tropos. vs
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_355, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_355, 'standard_name', 'err_m_vst_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_532, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_532, 'standard_name', 'err_m_vst_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_1064, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_err_m_vst_raman_1064, 'standard_name', 'err_m_vst_raman_1064.');
+
+% CCN
+% total
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_355, 'long_name', 'Total CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_355, 'standard_name', 'n_ccn_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_532, 'long_name', 'Total CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_532, 'standard_name', 'n_ccn_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_1064, 'long_name', 'Total CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_raman_1064, 'standard_name', 'n_ccn_raman_1064.'); 
+
+% dust
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_355, 'long_name', 'Dust CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_355, 'standard_name', 'n_ccn_d_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_532, 'long_name', 'Dust CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_532, 'standard_name', 'n_ccn_d_raman_532.'); 
+
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_1064, 'long_name', 'Dust CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_d_raman_1064, 'standard_name', 'n_ccn_d_raman_1064.'); 
+
+% continental
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_355, 'long_name', 'Continental CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_355, 'standard_name', 'n_ccn_c_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_532, 'long_name', 'Continental CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_532, 'standard_name', 'n_ccn_c_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_1064, 'long_name', 'Continental CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_c_raman_1064, 'standard_name', 'n_ccn_c_raman_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_355, 'long_name', 'Marine CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_355, 'standard_name', 'n_ccn_m_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_532, 'long_name', 'Marine CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_532, 'standard_name', 'n_ccn_m_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_1064, 'long_name', 'Marine CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_m_raman_1064, 'standard_name', 'n_ccn_m_raman_1064.'); 
+
+% biomass burnig
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_355, 'long_name', 'Biomass Burning CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_355, 'standard_name', 'n_ccn_bb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_532, 'long_name', 'Biomass Burning CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_532, 'standard_name', 'n_ccn_bb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_1064, 'long_name', 'Biomass Burning CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_bb_raman_1064, 'standard_name', 'n_ccn_bb_raman_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_355, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_355, 'standard_name', 'n_ccn_vsf_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_532, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_532, 'standard_name', 'n_ccn_vsf_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_1064, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsf_raman_1064, 'standard_name', 'n_ccn_vsf_raman_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_355, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_355, 'standard_name', 'n_ccn_vsa_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_532, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_532, 'standard_name', 'n_ccn_vsa_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_1064, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vsa_raman_1064, 'standard_name', 'n_ccn_vsa_raman_1064.');
+
+% tropos. vs
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_355, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_355, 'standard_name', 'n_ccn_vst_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_532, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_532, 'standard_name', 'n_ccn_vst_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_1064, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_ccn_vst_raman_1064, 'standard_name', 'n_ccn_vst_raman_1064.'); 
+
+% INP
+
+% Dust INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_355, 'long_name', 'Dust INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_355, 'standard_name', 'n_inp_d_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_532, 'long_name', 'Dust INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_532, 'standard_name', 'n_inp_d_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, 'long_name', 'Dust INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_amb_raman_1064, 'standard_name', 'n_inp_d_d10_amb_raman_1064.'); 
+
+% Dust INP DeMott 2015
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_355, 'long_name', 'Dust INP DeMott 2015 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_355, 'standard_name', 'n_inp_d_d15_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_532, 'long_name', 'Dust INP DeMott 2015 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_532, 'standard_name', 'n_inp_d_d15_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, 'long_name', 'Dust INP DeMott 2015 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_amb_raman_1064, 'standard_name', 'n_inp_d_d15_amb_raman_1064.'); 
+
+% Dust INP Niemand 2012
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_355, 'long_name', 'Dust INP Niemand 2012 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_355, 'standard_name', 'n_inp_d_n12_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_532, 'long_name', 'Dust INP Niemand 2012 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_532, 'standard_name', 'n_inp_d_n12_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, 'long_name', 'Dust INP Niemand 2012 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_amb_raman_1064, 'standard_name', 'n_inp_d_n12_amb_raman_1064.'); 
+
+% Dust INP Steinke 2015
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_355, 'long_name', 'Dust INP Steinke 2015 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_355, 'standard_name', 'n_inp_d_s15_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_532, 'long_name', 'Dust INP Steinke 2015 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_532, 'standard_name', 'n_inp_d_s15_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, 'long_name', 'Dust INP Steinke 2015 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_amb_raman_1064, 'standard_name', 'n_inp_d_s15_amb_raman_1064.'); 
+
+% Dust INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_355, 'long_name', 'Dust INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_355, 'standard_name', 'n_inp_d_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_532, 'long_name', 'Dust INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_532, 'standard_name', 'n_inp_d_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_1064, 'long_name', 'Dust INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d10_raman_1064, 'standard_name', 'n_inp_d_d10_raman_1064.'); 
+
+% Dust INP DeMott 2015
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_355, 'long_name', 'Dust INP DeMott 2015 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_355, 'standard_name', 'n_inp_d_d15_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_532, 'long_name', 'Dust INP DeMott 2015 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_532, 'standard_name', 'n_inp_d_d15_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_1064, 'long_name', 'Dust INP DeMott 2015 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_d15_raman_1064, 'standard_name', 'n_inp_d_d15_raman_1064.'); 
+
+% Dust INP Niemand 2012 
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_355, 'long_name', 'Dust INP Niemand 2012 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_355, 'standard_name', 'n_inp_d_n12_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_532, 'long_name', 'Dust INP Niemand 2012 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_532, 'standard_name', 'n_inp_d_n12_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_1064, 'long_name', 'Dust INP Niemand 2012 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_n12_raman_1064, 'standard_name', 'n_inp_d_n12_raman_1064.'); 
+
+% Dust INP Steinke 2015
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_355, 'long_name', 'Dust INP Steinke 2015 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_355, 'standard_name', 'n_inp_d_s15_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_532, 'long_name', 'Dust INP Steinke 2015 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_532, 'standard_name', 'n_inp_d_s15_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_1064, 'long_name', 'Dust INP Steinke 2015 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_d_s15_raman_1064, 'standard_name', 'n_inp_d_s15_raman_1064.'); 
+
+% Continental INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_355, 'long_name', 'Continental INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_355, 'standard_name', 'n_inp_c_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_532, 'long_name', 'Continental INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_532, 'standard_name', 'n_inp_c_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, 'long_name', 'Continental INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_amb_raman_1064, 'standard_name', 'n_inp_c_d10_amb_raman_1064.'); 
+
+% Continental INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_355, 'long_name', 'Continental INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_355, 'standard_name', 'n_inp_c_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_532, 'long_name', 'Continental INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_532, 'standard_name', 'n_inp_c_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_1064, 'long_name', 'Continental INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_c_d10_raman_1064, 'standard_name', 'n_inp_c_d10_raman_1064.'); 
+
+% Marine INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_355, 'long_name', 'Marine INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_355, 'standard_name', 'n_inp_m_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_532, 'long_name', 'Marine INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_532, 'standard_name', 'n_inp_m_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, 'long_name', 'Marine INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_amb_raman_1064, 'standard_name', 'n_inp_m_d10_amb_raman_1064.'); 
+
+% Marine INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_355, 'long_name', 'Marine INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_355, 'standard_name', 'n_inp_m_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_532, 'long_name', 'Marine INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_532, 'standard_name', 'n_inp_m_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_1064, 'long_name', 'Marine INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_m_d10_raman_1064, 'standard_name', 'n_inp_m_d10_raman_1064.'); 
+
+% Biomass Burning INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_355, 'standard_name', 'inp_bb_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_532, 'standard_name', 'INPbb_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_amb_raman_1064, 'standard_name', 'INPbb_d10_amb_raman_1064.'); 
+
+% Biomass Burning INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_355, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_355, 'standard_name', 'INPbb_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_532, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_532, 'standard_name', 'INPbb_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_1064, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_bb_d10_raman_1064, 'standard_name', 'INPbb_d10_raman_1064.'); 
+
+% Fresh Volc. INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_355, 'standard_name', 'INPvsf_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_532, 'standard_name', 'INPvsf_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_amb_raman_1064, 'standard_name', 'INPvsf_d10_amb_raman_1064.'); 
+
+% Fresh Volc. INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_355, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_355, 'standard_name', 'INPvsf_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_532, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_532, 'standard_name', 'INPvsf_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_1064, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsf_d10_raman_1064, 'standard_name', 'INPvsf_d10_raman_1064.'); 
+
+% Aged Volc. INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_355, 'standard_name', 'INPvsa_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_532, 'standard_name', 'INPvsa_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_amb_raman_1064, 'standard_name', 'INPvsa_d10_amb_raman_1064.'); 
+
+% Aged Volc. INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_355, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_355, 'standard_name', 'INPvsa_d10_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_532, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_532, 'standard_name', 'INPvsa_d10_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_1064, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vsa_d10_raman_1064, 'standard_name', 'INPvsa_d10_raman_1064.'); 
+
+% Trop. Volc. INP DeMott 2010
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_355, 'standard_name', 'INPvst_d10_amb_raman_355.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_532, 'standard_name', 'INPvst_d10_amb_raman_532.'); 
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_amb_raman_1064, 'standard_name', 'INPvst_d10_amb_raman_1064.'); 
+
+% Trop. Volc. INP DeMott 2010 
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_355, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 355 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_355, 'standard_name', 'INPvst_d10_raman_355.');
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_532, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 532 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_532, 'standard_name', 'INPvst_d10_raman_532.');
+
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_1064, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 1064 nm raman');  
+netcdf.putAtt(ncID_raman, varID_n_inp_vst_d10_raman_1064, 'standard_name', 'INPvst_d10_raman_1064.');
 %% raman 355
 % aerBsc_raman_355
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'long_name', 'aerosol backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'standard_name', 'beta (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_raman_355 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_raman_355, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'long_name', 'aerosol backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'standard_name', 'beta (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_raman_355 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_355, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_raman_355
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'long_name', 'uncertainty of aerosol backscatter coefficient at 355 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_raman_355 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_raman_355, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'long_name', 'uncertainty of aerosol backscatter coefficient at 355 nm');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_raman_355 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_355, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc355_raman_d2
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_raman_d2
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_raman_dc2
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_raman_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_raman_df2
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_raman_df2
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_raman_nddf2
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_raman_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_raman_nd2
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc355_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_raman_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 355 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc355_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 %% raman 532
 % aerBsc_raman_532
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'long_name', 'aerosol backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'standard_name', 'beta (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_raman_532 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_raman_532, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'long_name', 'aerosol backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'standard_name', 'beta (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_raman_532 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_532, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_raman_532
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'long_name', 'uncertainty of aerosol backscatter coefficient at 532 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_raman_532 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_raman_532, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'long_name', 'uncertainty of aerosol backscatter coefficient at 532 nm');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_raman_532 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_532, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc532_raman_d2
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_raman_d2
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_raman_dc2
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_raman_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_raman_df2
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_raman_df2
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_raman_nddf2
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_raman_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_raman_nd2
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc532_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_raman_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc532_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 %% raman 1064
 % aerBsc_raman_1064
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'long_name', 'aerosol backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'standard_name', 'beta (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_raman_1064 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_raman_1064, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'long_name', 'aerosol backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'standard_name', 'beta (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_raman_1064 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBsc_raman_1064, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_raman_1064
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'long_name', 'uncertainty of aerosol backscatter coefficient at 1064 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_raman_1064 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_raman_1064, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'long_name', 'uncertainty of aerosol backscatter coefficient at 1064 nm');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_raman_1064 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_raman, varID_aerBscStd_raman_1064, 'comment', sprintf('The result is retrieved with Raman method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined Raman elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc1064_raman_d2
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'long_name', 'two-step dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_raman_d2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_raman_dc2
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_raman_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_raman_df2
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_raman_df2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_raman_nddf2
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_raman_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_raman_nd2
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_aerBsc1064_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_raman_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 1064 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_err_aerBsc1064_raman_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+
 
 
 
+%% Extinction, Mass, Surface Arean, CCN, INP,.. Klett
+
+% extinction
+% dust
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_355, 'long_name', 'Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_355, 'standard_name', 'Ad_klett_355.');  
+
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_532, 'long_name', 'Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_532, 'standard_name', 'Ad_klett_532.');  
+
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_1064, 'long_name', 'Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_d_klett_1064, 'standard_name', 'Ad_klett_1064.');  
+
+% coarse dust
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_355, 'long_name', 'Coarse Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_355, 'standard_name', 'Acd_klett_355.'); 
+
+
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_532, 'long_name', 'Coarse Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_532, 'standard_name', 'Acd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_1064, 'long_name', 'Coarse Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_cd_klett_1064, 'standard_name', 'Acd_klett_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_355, 'long_name', 'Fine Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_355, 'standard_name', 'Afd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_532, 'long_name', 'Fine Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_532, 'standard_name', 'Afd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_1064, 'long_name', 'Fine Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_fd_klett_1064, 'standard_name', 'Afd_klett_1064.'); 
+
+% non-dust marine
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_355, 'long_name', 'Non-Dust marine ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_355, 'standard_name', 'Andm1_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_532, 'long_name', 'Non-Dust marine ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_532, 'standard_name', 'Andm1_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_1064, 'long_name', 'Non-Dust marine ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_ndm_klett_1064, 'standard_name', 'Andm1_klett_1064.'); 
+
+% non-dust smoke
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_355, 'long_name', 'Non-Dust smoke ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_355, 'standard_name', 'Ands1_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_532, 'long_name', 'Non-Dust smoke ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_532, 'standard_name', 'Ands1_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_1064, 'long_name', 'Non-Dust smoke ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_nds_klett_1064, 'standard_name', 'Ands1_klett_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_355, 'long_name', 'Biomass burning smoke ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_355, 'standard_name', 'Abb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_532, 'long_name', 'Biomass burning smoke ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_532, 'standard_name', 'Abb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_1064, 'long_name', 'Biomass burning smoke ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_bb_klett_1064, 'standard_name', 'Abb_klett_1064.'); 
+
+% fresh volcanic sulfate
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_355, 'long_name', 'fresh volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_355, 'standard_name', 'Avsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_532, 'long_name', 'fresh volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_532, 'standard_name', 'Avsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_1064, 'long_name', 'fresh volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsf_klett_1064, 'standard_name', 'Avsf_klett_1064.'); 
+
+% aged volcanic sulfate
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_355, 'long_name', 'aged volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_355, 'standard_name', 'Avsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_532, 'long_name', 'aged volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_532, 'standard_name', 'Avsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_1064, 'long_name', 'aged volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vsa_klett_1064, 'standard_name', 'Avsa_klett_1064.'); 
+
+% tropospheric volcanic sulfate
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_355, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_355, 'standard_name', 'Avst_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_532, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_532, 'standard_name', 'Avst_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_1064, 'long_name', 'tropospheric volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_ext_vst_klett_1064, 'standard_name', 'Avst_klett_1064.'); 
+
+% mass 
+
+% dust
+netcdf.putAtt(ncID_klett, varID_m_d_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_355, 'long_name', 'Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_355, 'standard_name', 'm_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_d_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_532, 'long_name', 'Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_532, 'standard_name', 'm_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_d_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_1064, 'long_name', 'Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_d_klett_1064, 'standard_name', 'm_d_klett_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_355, 'long_name', 'Coarse Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_355, 'standard_name', 'm_cd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_532, 'long_name', 'Coarse Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_532, 'standard_name', 'm_cd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_1064, 'long_name', 'Coarse Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_cd_klett_1064, 'standard_name', 'm_cd_klett_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_355, 'long_name', 'Fine Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_355, 'standard_name', 'm_fd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_532, 'long_name', 'Fine Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_532, 'standard_name', 'm_fd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_1064, 'long_name', 'Fine Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_fd_klett_1064, 'standard_name', 'm_fd_klett_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_355, 'long_name', 'Non-Dust marine mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_355, 'standard_name', 'm_ndm_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_532, 'long_name', 'Non-Dust marine mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_532, 'standard_name', 'm_ndm_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_1064, 'long_name', 'Non-Dust marine mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_ndm_klett_1064, 'standard_name', 'm_ndm_klett_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_355, 'long_name', 'Non-Dust smoke mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_355, 'standard_name', 'm_nds_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_532, 'long_name', 'Non-Dust smoke mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_532, 'standard_name', 'm_nds_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_1064, 'long_name', 'Non-Dust smoke mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_nds_klett_1064, 'standard_name', 'm_nds_klett_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_355, 'long_name', 'Biomass burning mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_355, 'standard_name', 'm_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_532, 'long_name', 'Biomass burning mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_532, 'standard_name', 'm_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_1064, 'long_name', 'Biomass burning mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_bb_klett_1064, 'standard_name', 'm_bb_klett_1064.'); 
+
+% vsf
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_355, 'long_name', 'fresh volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_355, 'standard_name', 'm_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_532, 'long_name', 'fresh volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_532, 'standard_name', 'm_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_1064, 'long_name', 'fresh volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsf_klett_1064, 'standard_name', 'm_vsf_klett_1064.'); 
+
+% vsa
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_355, 'long_name', 'aged volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_355, 'standard_name', 'm_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_532, 'long_name', 'aged volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_532, 'standard_name', 'm_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_1064, 'long_name', 'aged volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vsa_klett_1064, 'standard_name', 'm_vsa_klett_1064.'); 
+
+% vst
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_355, 'long_name', 'tropospheric volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_355, 'standard_name', 'm_vst_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_532, 'long_name', 'tropospheric volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_532, 'standard_name', 'm_vst_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_1064, 'long_name', 'tropospheric volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_m_vst_klett_1064, 'standard_name', 'm_vst_klett_1064.');
+
+% number concentrations
+
+% dust 100
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_355, 'long_name', 'Dust Number Conc. >100nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_355, 'standard_name', 'n_100_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_532, 'long_name', 'Dust Number Conc. >100nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_532, 'standard_name', 'n_100_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_1064, 'long_name', 'Dust Number Conc. >100nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_100_d_klett_1064, 'standard_name', 'n_100_d_klett_1064.'); 
+
+% dust 250
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_355, 'long_name', 'Dust Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_355, 'standard_name', 'n_250_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_532, 'long_name', 'Dust Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_532, 'standard_name', 'n_250_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_1064, 'long_name', 'Dust Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_d_klett_1064, 'standard_name', 'n_250_d_klett_1064.'); 
+
+% continental 50
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_355, 'long_name', 'Continental Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_355, 'standard_name', 'n_50_c_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_532, 'long_name', 'Continental Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_532, 'standard_name', 'n_50_c_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_1064, 'long_name', 'Continental Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_c_klett_1064, 'standard_name', 'n_50_c_klett_1064.'); 
+
+% continental 250
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_355, 'long_name', 'Continental Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_355, 'standard_name', 'n_250_c_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_532, 'long_name', 'Continental Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_532, 'standard_name', 'n_250_c_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_1064, 'long_name', 'Continental Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_c_klett_1064, 'standard_name', 'n_250_c_klett_1064.'); 
+
+% marine 50
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_355, 'long_name', 'Marine Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_355, 'standard_name', 'n_50_m_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_532, 'long_name', 'Marine Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_532, 'standard_name', 'n_50_m_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_1064, 'long_name', 'Marine Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_m_klett_1064, 'standard_name', 'n_50_m_klett_1064.'); 
+
+% marine 250
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_355, 'long_name', 'Marine Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_355, 'standard_name', 'n_250_m_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_532, 'long_name', 'Marine Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_532, 'standard_name', 'n_250_m_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_1064, 'long_name', 'Marine Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_m_klett_1064, 'standard_name', 'n_250_m_klett_1064.'); 
+
+% biomass burning 50
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_355, 'long_name', 'Biomass Burning Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_355, 'standard_name', 'n_50_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_532, 'long_name', 'Biomass Burning Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_532, 'standard_name', 'n_50_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_1064, 'long_name', 'Biomass Burning Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_bb_klett_1064, 'standard_name', 'n_50_bb_klett_1064.'); 
+
+% biomass burning 250
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_355, 'long_name', 'Biomass Burning Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_355, 'standard_name', 'n_250_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_532, 'long_name', 'Biomass Burning Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_532, 'standard_name', 'n_250_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_1064, 'long_name', 'Biomass Burning Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_bb_klett_1064, 'standard_name', 'n_250_bb_klett_1064.'); 
+
+% vsf 50
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_355, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_355, 'standard_name', 'n_50_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_532, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_532, 'standard_name', 'n_50_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_1064, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsf_klett_1064, 'standard_name', 'n_50_vsf_klett_1064.'); 
+
+% vsf 250
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_355, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_355, 'standard_name', 'n_250_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_532, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_532, 'standard_name', 'n_250_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_1064, 'long_name', 'Fresh Volcanic Sulfate Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsf_klett_1064, 'standard_name', 'n_250_vsf_klett_1064.'); 
+% vsa 50
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_355, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_355, 'standard_name', 'n_50_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_532, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_532, 'standard_name', 'n_50_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_1064, 'long_name', 'Aged Volcanic Sulfate Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vsa_klett_1064, 'standard_name', 'n_50_vsa_klett_1064.'); 
+
+% vsa 250
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_355, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_355, 'standard_name', 'n_250_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_532, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_532, 'standard_name', 'n_250_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_1064, 'long_name', 'Aged Volcanic Sulfate Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vsa_klett_1064, 'standard_name', 'n_250_vsa_klett_1064.'); 
+
+% vst 50
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_355, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_355, 'standard_name', 'n_50_vst_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_532, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_532, 'standard_name', 'n_50_vst_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_1064, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >50nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_50_vst_klett_1064, 'standard_name', 'n_50_vst_klett_1064.'); 
+
+% vst 250
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_355, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_355, 'standard_name', 'n_250_vst_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_532, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_532, 'standard_name', 'n_250_vst_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_1064, 'long_name', 'Trop. Volcanic Sulfate Number Conc. >250nm 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_250_vst_klett_1064, 'standard_name', 'n_250_vst_klett_1064.');
+
+% surface area conc
+% dust
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_355, 'long_name', 'Dust Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_355, 'standard_name', 'sa_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_532, 'long_name', 'Dust Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_532, 'standard_name', 'sa_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_1064, 'long_name', 'Dust Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_d_klett_1064, 'standard_name', 'sa_d_klett_1064.'); 
+% continental
+
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_355, 'long_name', 'Continental Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_355, 'standard_name', 'sa_c_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_532, 'long_name', 'Continental Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_532, 'standard_name', 'sa_c_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_1064, 'long_name', 'Continental Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_c_klett_1064, 'standard_name', 'sa_c_klett_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_355, 'long_name', 'Marine Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_355, 'standard_name', 'sa_m_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_532, 'long_name', 'Marine Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_532, 'standard_name', 'sa_m_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_1064, 'long_name', 'Marine Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_m_klett_1064, 'standard_name', 'sa_m_klett_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_355, 'long_name', 'Biomass Burning Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_355, 'standard_name', 'sa_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_532, 'long_name', 'Biomass Burning Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_532, 'standard_name', 'sa_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_1064, 'long_name', 'Biomass Burning Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_bb_klett_1064, 'standard_name', 'sa_bb_klett_1064.'); 
+
+% fresh volcanic
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_355, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_355, 'standard_name', 'sa_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_532, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_532, 'standard_name', 'sa_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_1064, 'long_name', 'Fresh Volcanic Sulfate Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsf_klett_1064, 'standard_name', 'sa_vsf_klett_1064.'); 
+
+% aged volcanic
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_355, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_355, 'standard_name', 'sa_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_532, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_532, 'standard_name', 'sa_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_1064, 'long_name', 'Aged Volcanic Sulfate Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vsa_klett_1064, 'standard_name', 'sa_vsa_klett_1064.'); 
+
+% trop. volcanic
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_355, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_355, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_355, 'standard_name', 'sa_vst_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_532, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_532, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_532, 'standard_name', 'sa_vst_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_1064, 'unit', 'm$^{2}$ m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_1064, 'long_name', 'Trop. Volcanic Sulfate Surface Area Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_sa_vst_klett_1064, 'standard_name', 'sa_vst_klett_1064.');
+
+% errors
+% extinction
+% dust
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_355, 'long_name', 'Error Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_355, 'standard_name', 'err_ext_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_532, 'long_name', 'Error Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_532, 'standard_name', 'err_ext_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_1064, 'long_name', 'Error Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_d_klett_1064, 'standard_name', 'err_ext_d_klett_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_355, 'long_name', 'Error Coarse Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_355, 'standard_name', 'err_ext_cd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_532, 'long_name', 'Error Coarse Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_532, 'standard_name', 'err_ext_cd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_1064, 'long_name', 'Error Coarse Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_cd_klett_1064, 'standard_name', 'err_ext_cd_klett_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_355, 'long_name', 'Error Fine Dust ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_355, 'standard_name', 'err_ext_fd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_532, 'long_name', 'Error Fine Dust ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_532, 'standard_name', 'err_ext_fd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_1064, 'long_name', 'Error Fine Dust ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_fd_klett_1064, 'standard_name', 'err_ext_fd_klett_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_355, 'long_name', 'Error Non-Dust marine ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_355, 'standard_name', 'err_ext_ndm_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_532, 'long_name', 'Error Non-Dust marine ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_532, 'standard_name', 'err_ext_ndm_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_1064, 'long_name', 'Error Non-Dust marine ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_ndm_klett_1064, 'standard_name', 'err_ext_ndm_klett_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_355, 'long_name', 'Error Non-Dust smoke ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_355, 'standard_name', 'err_ext_nds_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_532, 'long_name', 'Error Non-Dust smoke ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_532, 'standard_name', 'err_ext_nds_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_1064, 'long_name', 'Error Non-Dust smoke ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_nds_klett_1064, 'standard_name', 'err_ext_nds_klett_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_355, 'long_name', 'Error Biomass burning ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_355, 'standard_name', 'err_ext_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_532, 'long_name', 'Error Biomass burning ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_532, 'standard_name', 'err_ext_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_1064, 'long_name', 'Error Biomass burning ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_bb_klett_1064, 'standard_name', 'err_ext_bb_klett_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_355, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_355, 'standard_name', 'err_ext_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_532, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_532, 'standard_name', 'err_ext_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_1064, 'long_name', 'Error fresh volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsf_klett_1064, 'standard_name', 'err_ext_vsf_klett_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_355, 'long_name', 'Error aged volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_355, 'standard_name', 'err_ext_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_532, 'long_name', 'Error aged volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_532, 'standard_name', 'err_ext_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_1064, 'long_name', 'Error aged volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vsa_klett_1064, 'standard_name', 'err_ext_vsa_klett_1064.'); 
+
+% tropos. vs
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_355, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_355, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_355, 'standard_name', 'err_ext_vst_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_532, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_532, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_532, 'standard_name', 'err_ext_vst_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_1064, 'unit', 'm$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_1064, 'long_name', 'Error tropospheric volcanic sulfate ext. coeff. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_ext_vst_klett_1064, 'standard_name', 'err_ext_vst_klett_1064.');
+
+% mass
+% dust
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_355, 'long_name', 'Error Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_355, 'standard_name', 'err_m_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_532, 'long_name', 'Error Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_532, 'standard_name', 'err_m_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_1064, 'long_name', 'Error Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_d_klett_1064, 'standard_name', 'err_m_d_klett_1064.'); 
+
+% coarse dust
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_355, 'long_name', 'Error Coarse Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_355, 'standard_name', 'err_m_cd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_532, 'long_name', 'Error Coarse Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_532, 'standard_name', 'err_m_cd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_1064, 'long_name', 'Error Coarse Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_cd_klett_1064, 'standard_name', 'err_m_cd_klett_1064.'); 
+
+% fine dust
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_355, 'long_name', 'Error Fine Dust mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_355, 'standard_name', 'err_m_fd_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_532, 'long_name', 'Error Fine Dust mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_532, 'standard_name', 'err_m_fd_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_1064, 'long_name', 'Error Fine Dust mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_fd_klett_1064, 'standard_name', 'err_m_fd_klett_1064.'); 
+
+% marine 
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_355, 'long_name', 'Error Non-Dust marine mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_355, 'standard_name', 'err_m_ndm_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_532, 'long_name', 'Error Non-Dust marine mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_532, 'standard_name', 'err_m_ndm_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_1064, 'long_name', 'Error Non-Dust marine mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_ndm_klett_1064, 'standard_name', 'err_m_ndm_klett_1064.'); 
+
+% smoke
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_355, 'long_name', 'Error Non-Dust smoke mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_355, 'standard_name', 'err_m_nds_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_532, 'long_name', 'Error Non-Dust smoke mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_532, 'standard_name', 'err_m_nds_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_1064, 'long_name', 'Error Non-Dust smoke mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_nds_klett_1064, 'standard_name', 'err_m_nds_klett_1064.'); 
+
+% biomass burning
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_355, 'long_name', 'Error Biomass burning mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_355, 'standard_name', 'err_m_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_532, 'long_name', 'Error Biomass burning mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_532, 'standard_name', 'err_m_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_1064, 'long_name', 'Error Biomass burning mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_bb_klett_1064, 'standard_name', 'err_m_bb_klett_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_355, 'long_name', 'Error fresh volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_355, 'standard_name', 'err_m_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_532, 'long_name', 'Error fresh volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_532, 'standard_name', 'err_m_vsf_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_1064, 'long_name', 'Error fresh volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsf_klett_1064, 'standard_name', 'err_m_vsf_klett_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_355, 'long_name', 'Error aged volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_355, 'standard_name', 'err_m_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_532, 'long_name', 'Error aged volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_532, 'standard_name', 'err_m_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_1064, 'long_name', 'Error aged volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vsa_klett_1064, 'standard_name', 'err_m_vsa_klett_1064.'); 
+
+% tropos. vs
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_355, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_355, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_355, 'standard_name', 'err_m_vst_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_532, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_532, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_532, 'standard_name', 'err_m_vst_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_1064, 'unit', 'ug m$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_1064, 'long_name', 'Error tropospheric volcanic sulfate mass conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_err_m_vst_klett_1064, 'standard_name', 'err_m_vst_klett_1064.');
+
+% CCN
+% total
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_355, 'long_name', 'Total CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_355, 'standard_name', 'n_ccn_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_532, 'long_name', 'Total CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_532, 'standard_name', 'n_ccn_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_1064, 'long_name', 'Total CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_klett_1064, 'standard_name', 'n_ccn_klett_1064.'); 
+
+% dust
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_355, 'long_name', 'Dust CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_355, 'standard_name', 'n_ccn_d_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_532, 'long_name', 'Dust CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_532, 'standard_name', 'n_ccn_d_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_1064, 'long_name', 'Dust CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_d_klett_1064, 'standard_name', 'n_ccn_d_klett_1064.'); 
+
+% continental
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_355, 'long_name', 'Continental CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_355, 'standard_name', 'n_ccn_c_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_532, 'long_name', 'Continental CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_532, 'standard_name', 'n_ccn_c_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_1064, 'long_name', 'Continental CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_c_klett_1064, 'standard_name', 'n_ccn_c_klett_1064.'); 
+
+% marine
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_355, 'long_name', 'Marine CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_355, 'standard_name', 'n_ccn_m_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_532, 'long_name', 'Marine CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_532, 'standard_name', 'n_ccn_m_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_1064, 'long_name', 'Marine CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_m_klett_1064, 'standard_name', 'n_ccn_m_klett_1064.'); 
+
+% biomass burnig
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_355, 'long_name', 'Biomass Burning CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_355, 'standard_name', 'n_ccn_bb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_532, 'long_name', 'Biomass Burning CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_532, 'standard_name', 'n_ccn_bb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_1064, 'long_name', 'Biomass Burning CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_bb_klett_1064, 'standard_name', 'n_ccn_bb_klett_1064.'); 
+
+% fresh vs
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_355, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_355, 'standard_name', 'n_ccn_vsf_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_532, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_532, 'standard_name', 'n_ccn_vsf_klett_532.'); 
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_1064, 'unit', 'cm$^{-3}$');  
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_1064, 'long_name', 'Fresh Volcanic Sulfate CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsf_klett_1064, 'standard_name', 'n_ccn_vsf_klett_1064.'); 
+
+% aged vs
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_355, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_355, 'standard_name', 'n_ccn_vsa_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_532, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_532, 'standard_name', 'n_ccn_vsa_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_1064, 'long_name', 'Aged Volcanic Sulfate CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vsa_klett_1064, 'standard_name', 'n_ccn_vsa_klett_1064.');
+
+% tropos. vs
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_355, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_355, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_355, 'standard_name', 'n_ccn_vst_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_532, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_532, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_532, 'standard_name', 'n_ccn_vst_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_1064, 'unit', 'cm$^{-3}$');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_1064, 'long_name', 'Trop. Volcanic Sulfate CCN Conc. 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_ccn_vst_klett_1064, 'standard_name', 'n_ccn_vst_klett_1064.'); 
+
+% INP
+% Dust INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_355, 'long_name', 'Dust INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_355, 'standard_name', 'n_inp_d_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_532, 'long_name', 'Dust INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_532, 'standard_name', 'n_inp_d_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, 'long_name', 'Dust INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_amb_klett_1064, 'standard_name', 'n_inp_d_d10_amb_klett_1064.'); 
+
+% Dust INP DeMott 2015
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_355, 'long_name', 'Dust INP DeMott 2015 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_355, 'standard_name', 'n_inp_d_d15_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_532, 'long_name', 'Dust INP DeMott 2015 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_532, 'standard_name', 'n_inp_d_d15_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, 'long_name', 'Dust INP DeMott 2015 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_amb_klett_1064, 'standard_name', 'n_inp_d_d15_amb_klett_1064.'); 
+
+% Dust INP Niemand 2012
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_355, 'long_name', 'Dust INP Niemand 2012 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_355, 'standard_name', 'n_inp_d_n12_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_532, 'long_name', 'Dust INP Niemand 2012 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_532, 'standard_name', 'n_inp_d_n12_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, 'long_name', 'Dust INP Niemand 2012 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_amb_klett_1064, 'standard_name', 'n_inp_d_n12_amb_klett_1064.'); 
+
+% Dust INP Steinke 2015
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_355, 'long_name', 'Dust INP Steinke 2015 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_355, 'standard_name', 'n_inp_d_s15_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_532, 'long_name', 'Dust INP Steinke 2015 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_532, 'standard_name', 'n_inp_d_s15_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, 'long_name', 'Dust INP Steinke 2015 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_amb_klett_1064, 'standard_name', 'n_inp_d_s15_amb_klett_1064.'); 
+
+% Dust INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_355, 'long_name', 'Dust INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_355, 'standard_name', 'n_inp_d_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_532, 'long_name', 'Dust INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_532, 'standard_name', 'n_inp_d_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_1064, 'long_name', 'Dust INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d10_klett_1064, 'standard_name', 'n_inp_d_d10_klett_1064.'); 
+
+% Dust INP DeMott 2015
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_355, 'long_name', 'Dust INP DeMott 2015 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_355, 'standard_name', 'n_inp_d_d15_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_532, 'long_name', 'Dust INP DeMott 2015 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_532, 'standard_name', 'n_inp_d_d15_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_1064, 'long_name', 'Dust INP DeMott 2015 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_d15_klett_1064, 'standard_name', 'n_inp_d_d15_klett_1064.'); 
+
+% Dust INP Niemand 2012 
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_355, 'long_name', 'Dust INP Niemand 2012 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_355, 'standard_name', 'n_inp_d_n12_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_532, 'long_name', 'Dust INP Niemand 2012 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_532, 'standard_name', 'n_inp_d_n12_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_1064, 'long_name', 'Dust INP Niemand 2012 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_n12_klett_1064, 'standard_name', 'n_inp_d_n12_klett_1064.'); 
+
+% Dust INP Steinke 2015
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_355, 'long_name', 'Dust INP Steinke 2015 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_355, 'standard_name', 'n_inp_d_s15_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_532, 'long_name', 'Dust INP Steinke 2015 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_532, 'standard_name', 'n_inp_d_s15_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_1064, 'long_name', 'Dust INP Steinke 2015 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_d_s15_klett_1064, 'standard_name', 'n_inp_d_s15_klett_1064.'); 
+
+% Continental INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_355, 'long_name', 'Continental INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_355, 'standard_name', 'n_inp_c_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_532, 'long_name', 'Continental INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_532, 'standard_name', 'n_inp_c_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, 'long_name', 'Continental INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_amb_klett_1064, 'standard_name', 'n_inp_c_d10_amb_klett_1064.'); 
+
+% Continental INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_355, 'long_name', 'Continental INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_355, 'standard_name', 'n_inp_c_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_532, 'long_name', 'Continental INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_532, 'standard_name', 'n_inp_c_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_1064, 'long_name', 'Continental INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_c_d10_klett_1064, 'standard_name', 'n_inp_c_d10_klett_1064.'); 
+
+% Marine INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_355, 'long_name', 'Marine INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_355, 'standard_name', 'n_inp_m_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_532, 'long_name', 'Marine INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_532, 'standard_name', 'n_inp_m_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, 'long_name', 'Marine INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_amb_klett_1064, 'standard_name', 'n_inp_m_d10_amb_klett_1064.'); 
+
+% Marine INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_355, 'long_name', 'Marine INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_355, 'standard_name', 'n_inp_m_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_532, 'long_name', 'Marine INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_532, 'standard_name', 'n_inp_m_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_1064, 'long_name', 'Marine INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_m_d10_klett_1064, 'standard_name', 'n_inp_m_d10_klett_1064.'); 
+
+% Biomass Burning INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_355, 'standard_name', 'INPbb_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_532, 'standard_name', 'INPbb_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, 'long_name', 'Biomass Burning INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_amb_klett_1064, 'standard_name', 'INPbb_d10_amb_klett_1064.'); 
+
+% Biomass Burning INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_355, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_355, 'standard_name', 'INPbb_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_532, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_532, 'standard_name', 'INPbb_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_1064, 'long_name', 'Biomass Burning INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_bb_d10_klett_1064, 'standard_name', 'INPbb_d10_klett_1064.'); 
+
+% Fresh Volc. INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_355, 'standard_name', 'INPvsf_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_532, 'standard_name', 'INPvsf_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, 'long_name', 'Fresh Volc. INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_amb_klett_1064, 'standard_name', 'INPvsf_d10_amb_klett_1064.'); 
+
+% Fresh Volc. INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_355, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_355, 'standard_name', 'INPvsf_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_532, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_532, 'standard_name', 'INPvsf_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_1064, 'long_name', 'Fresh Volc. INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsf_d10_klett_1064, 'standard_name', 'INPvsf_d10_klett_1064.'); 
+
+% Aged Volc. INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_355, 'standard_name', 'INPvsa_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_532, 'standard_name', 'INPvsa_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, 'long_name', 'Aged Volc. INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_amb_klett_1064, 'standard_name', 'INPvsa_d10_amb_klett_1064.'); 
+
+% Aged Volc. INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_355, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_355, 'standard_name', 'INPvsa_d10_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_532, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_532, 'standard_name', 'INPvsa_d10_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_1064, 'long_name', 'Aged Volc. INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vsa_d10_klett_1064, 'standard_name', 'INPvsa_d10_klett_1064.'); 
+
+% Trop. Volc. INP DeMott 2010
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_355, 'standard_name', 'INPvst_d10_amb_klett_355.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_532, 'standard_name', 'INPvst_d10_amb_klett_532.'); 
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, 'long_name', 'Trop. Volc. INP DeMott 2010 (Amb) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_amb_klett_1064, 'standard_name', 'INPvst_d10_amb_klett_1064.'); 
+
+% Trop. Volc. INP DeMott 2010 
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_355, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_355, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 355 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_355, 'standard_name', 'INPvst_d10_klett_355.');
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_532, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_532, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 532 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_532, 'standard_name', 'INPvst_d10_klett_532.');
+
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_1064, 'unit', 'L$^{-1}$');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_1064, 'long_name', 'Trop. Volc. INP DeMott 2010 (Fixed) 1064 nm klett');  
+netcdf.putAtt(ncID_klett, varID_n_inp_vst_d10_klett_1064, 'standard_name', 'INPvst_d10_klett_1064.');
 
 %% klett 355
 % aerBsc_klett_355
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'long_name', 'aerosol backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'standard_name', 'beta (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_klett_355 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_klett_355, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'long_name', 'aerosol backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'standard_name', 'beta (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_klett_355 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_355, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_klett_355
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'long_name', 'uncertainty of aerosol backscatter coefficient at 355 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_klett_355 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_klett_355, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'long_name', 'uncertainty of aerosol backscatter coefficient at 355 nm');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta355 * 1e6, PollyConfig.heightFullOverlap(flagCh355FR), PollyConfig.maxDecomHeight355, PollyConfig.smoothWin_klett_355 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_355, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc355_klett_d2
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_klett_d2
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_klett_dc2
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_klett_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_klett_df2
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_klett_df2
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_klett_nddf2
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_klett_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc355_klett_nd2
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc355_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc355_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc355_klett_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 355 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc355_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 355 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc355_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 %% klett 532
 % aerBsc_klett_532
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'long_name', 'aerosol backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'standard_name', 'beta (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_klett_532 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_klett_532, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'long_name', 'aerosol backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'standard_name', 'beta (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_klett_532 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_532, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_klett_532
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'long_name', 'uncertainty of aerosol backscatter coefficient at 532 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_klett_532 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_klett_532, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'long_name', 'uncertainty of aerosol backscatter coefficient at 532 nm');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta532 * 1e6, PollyConfig.heightFullOverlap(flagCh532FR), PollyConfig.maxDecomHeight532, PollyConfig.smoothWin_klett_532 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_532, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc532_klett_d2
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_klett_d2
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_klett_dc2
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_klett_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_klett_df2
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_klett_df2
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_klett_nddf2
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_klett_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc532_klett_nd2
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'standard_name', 'beta dust (aer, 532 nm)');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc532_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'standard_name', 'beta dust (aer, 532 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc532_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc532_klett_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 532 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc532_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc532_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 %% klett 1064
 % aerBsc_klett_1064
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'long_name', 'aerosol backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'standard_name', 'beta (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_klett_1064 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBsc_klett_1064, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'unit_html', 'sr<sup>-1</sup> m<sup>-1</sup>')
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'long_name', 'aerosol backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'standard_name', 'beta (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'plot_range', PollyConfig.xLim_Profi_Bsc/1e6);
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_klett_1064 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBsc_klett_1064, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % aerBscStd_klett_1064
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'long_name', 'uncertainty of aerosol backscatter coefficient at 1064 nm');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'source', CampaignConfig.name);
-% netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_klett_1064 * data.hRes, PollyConfig.angstrexp));
-netcdf.putAtt(ncID, varID_aerBscStd_klett_1064, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'long_name', 'uncertainty of aerosol backscatter coefficient at 1064 nm');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'source', CampaignConfig.name);
+% netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'retrieving_info', sprintf('Reference value: %2e [Mm^{-1}*Sr^{-1}]; Reference search range: %8.2f - %8.2f [m]; Smoothing window: %d [m]; Angstroem exponent: %4.2f', PollyConfig.refBeta1064 * 1e6, PollyConfig.heightFullOverlap(flagCh1064FR), PollyConfig.maxDecomHeight1064, PollyConfig.smoothWin_klett_1064 * data.hRes, PollyConfig.angstrexp));
+netcdf.putAtt(ncID_klett, varID_aerBscStd_klett_1064, 'comment', sprintf('The result is retrieved with klett method. For information, please go to Ansmann, A., et al. (1992). \"Independent measurement of extinction and backscatter profiles in cirrus clouds by using a combined klett elastic-backscatter lidar.\" Applied optics 31(33): 7113-7131.'));
 
 % varID_aerBsc1064_klett_d2
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'long_name', 'two-step dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_klett_d2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'long_name', 'uncertainty of two-step dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_d2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_klett_dc2
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'long_name', 'two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_klett_dc2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'long_name', 'uncertainty of two-step coarse-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_dc2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_klett_df2
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'long_name', 'two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_klett_df2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'long_name', 'uncertainty of two-step fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_df2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_klett_nddf2
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'long_name', 'two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_klett_nddf2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'long_name', 'uncertainty of two-step non-dust/ fine-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nddf2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_aerBsc1064_klett_nd2
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'standard_name', 'beta dust (aer, 1064 nm)');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_aerBsc1064_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'long_name', 'two-step non-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'standard_name', 'beta dust (aer, 1064 nm)');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_aerBsc1064_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 
 % varID_err_aerBsc1064_klett_nd2
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'standard_name', 'sigma (beta)');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_err_aerBsc1064_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
-
-%% ?
-% varID_beta_dc 
-netcdf.putAtt(ncID, varID_beta_dc, 'unit', 'sr^-1 m^-1');
-netcdf.putAtt(ncID, varID_beta_dc, 'long_name', 'two-step coarse dust particle backscatter coefficient at 532 nm retrieved with Raman method');
-netcdf.putAtt(ncID, varID_beta_dc, 'standard_name', 'beta dust (aer, 355 nm)');
-netcdf.putAtt(ncID, varID_beta_dc, 'plot_scale', 'linear');
-netcdf.putAtt(ncID, varID_beta_dc, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_beta_dc, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'long_name', 'uncertainty of two-step non-dust particle backscatter coefficient at 1064 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'standard_name', 'sigma (beta)');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_err_aerBsc1064_klett_nd2, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+
+%% ? raman
+% varID_beta_dc_raman 
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'long_name', 'two-step coarse dust particle backscatter coefficient at 532 nm retrieved with Raman method');
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_beta_dc_raman, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
+%%
+varID_global = netcdf.getConstant('GLOBAL');
+netcdf.putAtt(ncID_raman, varID_global, 'Conventions', 'CF-1.0');
+netcdf.putAtt(ncID_raman, varID_global, 'Licence', 'Creative Commons Attribution Share Alike 4.0 International (CC BY-SA 4.0)');
+netcdf.putAtt(ncID_raman, varID_global, 'Data Policy', 'Each PollyNET site has Principal Investigator(s) (PI), responsible for deployment, maintenance and data collection. Information on which PI is responsible can be gathered via polly@tropos.de. The PI has priority use of the data collected at the site. The PI is entitled to be informed of any use of that data. Mandatory guidelines for data use and publication: Using PollyNET data or plots (also for presentations/workshops): Please consult with the PI or the PollyNET team (see contact_mail contact) before using data or plots! This will help to avoid misinterpretations of the lidar data and avoid the use of data from periods of malfunction of the instrument. Using PollyNET images/data on external websites: PIs and PollyNET must be asked for agreement and a link directed to polly.tropos.de must be included. Publishing PollyNET data and/or plots data: Offer authorship for the PI(s)! Acknowledge projects which have made the measurements possible according to PI(s) recommendation. PollyNET requests a notification of any published papers or reports or a brief description of other uses (e.g., posters, oral presentations, etc.) of data/plots used from PollyNET. This will help us determine the use of PollyNET data, which is helpful in optimizing product development and acquire new funding for future measurements. It also helps us to keep our product-related references up-to-date.');
+netcdf.putAtt(ncID_raman, varID_global, 'location', CampaignConfig.location);
+netcdf.putAtt(ncID_raman, varID_global, 'institute', PicassoConfig.institute);
+netcdf.putAtt(ncID_raman, varID_global, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_raman, varID_global, 'version', PicassoConfig.PicassoVersion);
+netcdf.putAtt(ncID_raman, varID_global, 'reference', PicassoConfig.homepage);
+netcdf.putAtt(ncID_raman, varID_global, 'contact', PicassoConfig.contact);
+netcdf.putAtt(ncID_raman, varID_global, 'PicassoConfig_Info', data.PicassoConfig_saving_info);
+netcdf.putAtt(ncID_raman, varID_global, 'PollyConfig_Info', data.PollyConfig_saving_info);
+netcdf.putAtt(ncID_raman, varID_global, 'CampaignConfig_Info', data.CampaignConfig_saving_info);
+netcdf.putAtt(ncID_raman, varID_global, 'PollyData_Info', data.PollyDataInfo_saving_info);
+cwd = pwd;
+cd(PicassoConfig.PicassoRootDir);
+gitInfo = getGitInfo();
+cd(cwd);
+netcdf.putAtt(ncID_raman, varID_global, 'history', sprintf('Last processing time at %s by %s, git branch: %s, git commit: %s', tNow, mfilename, gitInfo.branch, gitInfo.hash));
+
+% close file
+netcdf.close(ncID_raman);
+
+%% ? klett
+% varID_beta_dc_klett 
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'unit', 'sr^-1 m^-1');
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'long_name', 'two-step coarse dust particle backscatter coefficient at 532 nm retrieved with klett method');
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'standard_name', 'beta dust (aer, 355 nm)');
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'plot_scale', 'linear');
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_beta_dc_klett, 'retrieving_info', sprintf('For information, please go to Tesche et al. (2009) and Mamouri and Ansmann (2014).'));
 %%
 varID_global = netcdf.getConstant('GLOBAL');
-netcdf.putAtt(ncID, varID_global, 'Conventions', 'CF-1.0');
-netcdf.putAtt(ncID, varID_global, 'Licence', 'Creative Commons Attribution Share Alike 4.0 International (CC BY-SA 4.0)');
-netcdf.putAtt(ncID, varID_global, 'Data Policy', 'Each PollyNET site has Principal Investigator(s) (PI), responsible for deployment, maintenance and data collection. Information on which PI is responsible can be gathered via polly@tropos.de. The PI has priority use of the data collected at the site. The PI is entitled to be informed of any use of that data. Mandatory guidelines for data use and publication: Using PollyNET data or plots (also for presentations/workshops): Please consult with the PI or the PollyNET team (see contact_mail contact) before using data or plots! This will help to avoid misinterpretations of the lidar data and avoid the use of data from periods of malfunction of the instrument. Using PollyNET images/data on external websites: PIs and PollyNET must be asked for agreement and a link directed to polly.tropos.de must be included. Publishing PollyNET data and/or plots data: Offer authorship for the PI(s)! Acknowledge projects which have made the measurements possible according to PI(s) recommendation. PollyNET requests a notification of any published papers or reports or a brief description of other uses (e.g., posters, oral presentations, etc.) of data/plots used from PollyNET. This will help us determine the use of PollyNET data, which is helpful in optimizing product development and acquire new funding for future measurements. It also helps us to keep our product-related references up-to-date.');
-netcdf.putAtt(ncID, varID_global, 'location', CampaignConfig.location);
-netcdf.putAtt(ncID, varID_global, 'institute', PicassoConfig.institute);
-netcdf.putAtt(ncID, varID_global, 'source', CampaignConfig.name);
-netcdf.putAtt(ncID, varID_global, 'version', PicassoConfig.PicassoVersion);
-netcdf.putAtt(ncID, varID_global, 'reference', PicassoConfig.homepage);
-netcdf.putAtt(ncID, varID_global, 'contact', PicassoConfig.contact);
-netcdf.putAtt(ncID, varID_global, 'PicassoConfig_Info', data.PicassoConfig_saving_info);
-netcdf.putAtt(ncID, varID_global, 'PollyConfig_Info', data.PollyConfig_saving_info);
-netcdf.putAtt(ncID, varID_global, 'CampaignConfig_Info', data.CampaignConfig_saving_info);
-netcdf.putAtt(ncID, varID_global, 'PollyData_Info', data.PollyDataInfo_saving_info);
+netcdf.putAtt(ncID_klett, varID_global, 'Conventions', 'CF-1.0');
+netcdf.putAtt(ncID_klett, varID_global, 'Licence', 'Creative Commons Attribution Share Alike 4.0 International (CC BY-SA 4.0)');
+netcdf.putAtt(ncID_klett, varID_global, 'Data Policy', 'Each PollyNET site has Principal Investigator(s) (PI), responsible for deployment, maintenance and data collection. Information on which PI is responsible can be gathered via polly@tropos.de. The PI has priority use of the data collected at the site. The PI is entitled to be informed of any use of that data. Mandatory guidelines for data use and publication: Using PollyNET data or plots (also for presentations/workshops): Please consult with the PI or the PollyNET team (see contact_mail contact) before using data or plots! This will help to avoid misinterpretations of the lidar data and avoid the use of data from periods of malfunction of the instrument. Using PollyNET images/data on external websites: PIs and PollyNET must be asked for agreement and a link directed to polly.tropos.de must be included. Publishing PollyNET data and/or plots data: Offer authorship for the PI(s)! Acknowledge projects which have made the measurements possible according to PI(s) recommendation. PollyNET requests a notification of any published papers or reports or a brief description of other uses (e.g., posters, oral presentations, etc.) of data/plots used from PollyNET. This will help us determine the use of PollyNET data, which is helpful in optimizing product development and acquire new funding for future measurements. It also helps us to keep our product-related references up-to-date.');
+netcdf.putAtt(ncID_klett, varID_global, 'location', CampaignConfig.location);
+netcdf.putAtt(ncID_klett, varID_global, 'institute', PicassoConfig.institute);
+netcdf.putAtt(ncID_klett, varID_global, 'source', CampaignConfig.name);
+netcdf.putAtt(ncID_klett, varID_global, 'version', PicassoConfig.PicassoVersion);
+netcdf.putAtt(ncID_klett, varID_global, 'reference', PicassoConfig.homepage);
+netcdf.putAtt(ncID_klett, varID_global, 'contact', PicassoConfig.contact);
+netcdf.putAtt(ncID_klett, varID_global, 'PicassoConfig_Info', data.PicassoConfig_saving_info);
+netcdf.putAtt(ncID_klett, varID_global, 'PollyConfig_Info', data.PollyConfig_saving_info);
+netcdf.putAtt(ncID_klett, varID_global, 'CampaignConfig_Info', data.CampaignConfig_saving_info);
+netcdf.putAtt(ncID_klett, varID_global, 'PollyData_Info', data.PollyDataInfo_saving_info);
 cwd = pwd;
 cd(PicassoConfig.PicassoRootDir);
 gitInfo = getGitInfo();
 cd(cwd);
-netcdf.putAtt(ncID, varID_global, 'history', sprintf('Last processing time at %s by %s, git branch: %s, git commit: %s', tNow, mfilename, gitInfo.branch, gitInfo.hash));
+netcdf.putAtt(ncID_klett, varID_global, 'history', sprintf('Last processing time at %s by %s, git branch: %s, git commit: %s', tNow, mfilename, gitInfo.branch, gitInfo.hash));
 
 % close file
-netcdf.close(ncID);
+netcdf.close(ncID_klett);
 end
 end
\ No newline at end of file
diff --git a/lib/retrievals/poliphon_two.m b/lib/retrievals/poliphon_two.m
index ee8cdf4c..3fe67a1a 100644
--- a/lib/retrievals/poliphon_two.m
+++ b/lib/retrievals/poliphon_two.m
@@ -1,7 +1,14 @@
-function [POLIPHON2] = poliphon_two(aerBsc355_klett, pdr355_klett, ...
+function [POLIPHON2] = poliphon_two(aerBsc355_raman, pdr355_raman, aerBsc532_raman, pdr532_raman,...
+          aerBsc1064_raman, pdr1064_raman, aerBsc355_raman_d1, aerBsc355_raman_nd1, aerBsc532_raman_d1, aerBsc532_raman_nd1, ...
+          aerBsc1064_raman_d1, aerBsc1064_raman_nd1, err_aerBsc355_raman_d1, err_aerBsc355_raman_nd1, err_aerBsc532_raman_d1, ...
+          err_aerBsc532_raman_nd1, err_aerBsc1064_raman_d1, err_aerBsc1064_raman_nd1, temperature, pressure, ...
+          aerBsc355_klett, pdr355_klett, ...
           aerBsc532_klett, pdr532_klett, aerBsc1064_klett, pdr1064_klett,...
-          aerBsc355_raman, pdr355_raman, aerBsc532_raman, pdr532_raman,...
-          aerBsc1064_raman, pdr1064_raman) %aerBsc532_raman_d1
+          aerBsc355_klett_d1, aerBsc355_klett_nd1, ...
+          aerBsc532_klett_d1, aerBsc532_klett_nd1, aerBsc1064_klett_d1, aerBsc1064_klett_nd1, ...
+          err_aerBsc355_klett_d1, err_aerBsc355_klett_nd1, ...
+          err_aerBsc532_klett_d1,err_aerBsc532_klett_nd1, err_aerBsc1064_klett_d1, err_aerBsc1064_klett_nd1)
+
 % POLIPHON_TWO applies the two-step POLIPHON methodology
 % as described in Mamouri and Ansmann, 2014
 %
@@ -12,7 +19,6 @@
 % Backscatter coefficient (355, 532, 1064 nm - Raman/Klett)
 % Particle linear depolarization ratio (355, 532, 1064 nm - Raman/Klett)
 % Total dust backscatter coefficient from one-step POLIPHON
-
 % OUTPUT:
 %   POLIPHON2 - structure containing:
 %       - Fine, coarse and total dust backscatter coefficients
@@ -25,11 +31,9 @@
 % .. Authors: - jneumann@tropos.de
 %             - floutsi@tropos.de
 %
-
 % step one: non-dust and fine dust || non-dust, fine dust and coarse dust ||
 %           coarse dust
 % step two: non-dust || non-dust and fine dust
-
 % depolarization ratio constants (from Mamouri & Ansmann, Table 1)
 % AAF: As of now the value correspond to 532 nm. In the future we should
 % include the rest of the values for 355 and 1064 nm (as [X 0.35 x])
@@ -37,18 +41,21 @@
 % % delta_df   = 0.16; % fine dust
 % % delta_nd   = 0.05; % non-dust
 % % delta_nddf = 0.12; % residual depol (mixed fine dust + non-dust)
-
 Dcd = [0.30, 0.35, 0.39];   %depol coarse dust for 355, 532,1064 nm
 Dfd = [0.21, 0.16, 0.09];   %depol fine dust for 355, 532,1064 nm
 Dnd = [0.05, 0.05, 0.05];   %depol non dust for 355, 532,1064 nm
-
-
+% add new conversion factors
+% names from BERTHA script
 % preallocate the variables 
 sz        = size(aerBsc532_raman);
 Pndfd     = NaN(sz);
-
-
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
+aerBsc355_raman_d1        = NaN(sz);
+aerBsc355_raman_nd1       = NaN(sz);
+aerBsc532_raman_d1        = NaN(sz);
+aerBsc532_raman_nd1       = NaN(sz);
+aerBsc1064_raman_d1        = NaN(sz);
+aerBsc1064_raman_nd1       = NaN(sz);
 aerBsc355_klett_d2        = NaN(sz);
 aerBsc355_klett_dc2       = NaN(sz);
 aerBsc355_klett_df2       = NaN(sz);
@@ -59,7 +66,6 @@
 err_aerBsc355_klett_df2   = NaN(sz);
 err_aerBsc355_klett_nddf2 = NaN(sz);
 err_aerBsc355_klett_nd2   = NaN(sz);
-
 aerBsc532_klett_d2        = NaN(sz);
 aerBsc532_klett_dc2       = NaN(sz);
 aerBsc532_klett_df2       = NaN(sz);
@@ -70,7 +76,6 @@
 err_aerBsc532_klett_df2   = NaN(sz);
 err_aerBsc532_klett_nddf2 = NaN(sz);
 err_aerBsc532_klett_nd2   = NaN(sz);
-
 aerBsc1064_klett_d2        = NaN(sz);
 aerBsc1064_klett_dc2       = NaN(sz);
 aerBsc1064_klett_df2       = NaN(sz);
@@ -81,7 +86,6 @@
 err_aerBsc1064_klett_df2   = NaN(sz);
 err_aerBsc1064_klett_nddf2 = NaN(sz);
 err_aerBsc1064_klett_nd2   = NaN(sz);
-
 aerBsc355_raman_d2        = NaN(sz);
 aerBsc355_raman_dc2       = NaN(sz);
 aerBsc355_raman_df2       = NaN(sz);
@@ -92,7 +96,6 @@
 err_aerBsc355_raman_df2   = NaN(sz);
 err_aerBsc355_raman_nddf2 = NaN(sz);
 err_aerBsc355_raman_nd2   = NaN(sz);
-
 aerBsc532_raman_d2        = NaN(sz);
 aerBsc532_raman_dc2       = NaN(sz);
 aerBsc532_raman_df2       = NaN(sz);
@@ -103,7 +106,6 @@
 err_aerBsc532_raman_df2   = NaN(sz);
 err_aerBsc532_raman_nddf2 = NaN(sz);
 err_aerBsc532_raman_nd2   = NaN(sz);
-
 aerBsc1064_raman_d2        = NaN(sz);
 aerBsc1064_raman_dc2       = NaN(sz);
 aerBsc1064_raman_df2       = NaN(sz);
@@ -114,10 +116,9 @@
 err_aerBsc1064_raman_df2   = NaN(sz);
 err_aerBsc1064_raman_nddf2 = NaN(sz);
 err_aerBsc1064_raman_nd2   = NaN(sz);
-
+ext_d_raman_355 = NaN(sz);
 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
 % Mixing Ratio 
-
 dgfd = (2);
 dgnd = (2);
 for i=1:3
@@ -127,7 +128,7 @@
 
 % mixing ratio of fine dust and non dust -> dndfd
 %mr      = (0:2.500625156289073e-04:1);
-step = size(aerBsc355_klett,2);
+step = size(aerBsc355_raman,2);
 mr = linspace(0, 1, step);
 dgndfd  = (size(mr,2):2); 
 dndfd_e = (size(mr,2):2); %estimated depol of fine mode and non dust, depending on mixing ratio
@@ -137,6 +138,7 @@
         dndfd_e(i,c) = dgndfd(i,c)/(2-dgndfd(i,c));
     end
 end
+
 %% klett 355
 for i=1:size(aerBsc355_klett,1) % this loop shall be repeated for each bsc  % every retrieval profile
     for n=1:size(aerBsc355_klett,2) % every height 
@@ -159,18 +161,16 @@
             else
                     aerBsc355_klett_dc2(i,n) = aerBsc355_klett(i,n)*(pdr355_klett(i,n)-dndfd_e(1,n))*(1+Dcd(1))/(Dcd(1)-dndfd_e(1,n))/(1+pdr355_klett(i,n));
             end
-                
+
             aerBsc355_klett_nddf2(i,n) = aerBsc355_klett(i,n)-aerBsc355_klett_dc2(i,n);
         end
-
         if pdr532_raman(i,n)<=dndfd_e(1,n)                
             Pndfd(i,n) = pdr532_raman(i,n);
         else
             Pndfd(i,n) = dndfd_e(1,n);
         end
-
     end
-        
+
     for n=1:size(aerBsc355_klett,2)
         if Pndfd(i,n)>=Dnd(1)
             aerBsc355_klett_df2(i,n) = aerBsc355_klett_nddf2(i,n)*(Pndfd(i,n)-Dnd(1))*(1+Dfd(1))/(Dfd(1)-Dnd(1))/(1+Pndfd(i,n));
@@ -180,9 +180,8 @@
         aerBsc355_klett_nd2(i,n) = aerBsc355_klett_nddf2(i,n)-aerBsc355_klett_df2(i,n);
         aerBsc355_klett_d2(i,n)  = aerBsc355_klett_dc2(i,n)+aerBsc355_klett_df2(i,n);
     end
-   
-end
 
+end
 %% klett 532
 for i=1:size(aerBsc532_klett,1) % klett 532
     for n=1:size(aerBsc532_klett,2) % every height 
@@ -205,19 +204,17 @@
             else
                     aerBsc532_klett_dc2(i,n) = aerBsc532_klett(i,n)*(pdr532_klett(i,n)-dndfd_e(2,n))*(1+Dcd(2))/(Dcd(2)-dndfd_e(2,n))/(1+pdr532_klett(i,n));
             end
-                
+
             aerBsc532_klett_nddf2(i,n) = aerBsc532_klett(i,n)-aerBsc532_klett_dc2(i,n);
         end
-
         if pdr532_raman(i,n)<=dndfd_e(2,n)                
             Pndfd(i,n) = pdr532_raman(i,n);
         else
             Pndfd(i,n) = dndfd_e(2,n);
         end
-
     end
-    
-    
+
+
     for n=1:size(aerBsc532_klett,2)
         if Pndfd(i,n)>=Dnd(2)
             aerBsc532_klett_df2(i,n) = aerBsc532_klett_nddf2(i,n)*(Pndfd(i,n)-Dnd(2))*(1+Dfd(2))/(Dfd(2)-Dnd(2))/(1+Pndfd(i,n));
@@ -227,10 +224,8 @@
         aerBsc532_klett_nd2(i,n) = aerBsc532_klett_nddf2(i,n)-aerBsc532_klett_df2(i,n);
         aerBsc532_klett_d2(i,n)  = aerBsc532_klett_dc2(i,n)+aerBsc532_klett_df2(i,n);
     end
-   
-end
-
 
+end
 %% klett 1064
 for i=1:size(aerBsc1064_klett,1)
     for n=1:size(aerBsc1064_klett,2) % every height 
@@ -253,18 +248,16 @@
             else
                     aerBsc1064_klett_dc2(i,n) = aerBsc1064_klett(i,n)*(pdr1064_klett(i,n)-dndfd_e(3,n))*(1+Dcd(3))/(Dcd(3)-dndfd_e(3,n))/(1+pdr1064_klett(i,n));
             end
-                
+
             aerBsc1064_klett_nddf2(i,n) = aerBsc1064_klett(i,n)-aerBsc1064_klett_dc2(i,n);
         end
-
         if pdr532_raman(i,n)<=dndfd_e(3,n)                
             Pndfd(i,n) = pdr532_raman(i,n); 
         else
             Pndfd(i,n) = dndfd_e(3,n);
         end
-
     end
-    
+
     for n=1:size(aerBsc1064_klett,2)
         if Pndfd(i,n)>=Dnd(3)
             aerBsc1064_klett_df2(i,n) = aerBsc1064_klett_nddf2(i,n)*(Pndfd(i,n)-Dnd(3))*(1+Dfd(3))/(Dfd(3)-Dnd(3))/(1+Pndfd(i,n));
@@ -274,11 +267,8 @@
         aerBsc1064_klett_nd2(i,n) = aerBsc1064_klett_nddf2(i,n)-aerBsc1064_klett_df2(i,n);
         aerBsc1064_klett_d2(i,n)  = aerBsc1064_klett_dc2(i,n)+aerBsc1064_klett_df2(i,n);
     end
-   
-end
-
-
 
+end
 %% raman 355
 for i=1:size(aerBsc355_raman,1) 
     for n=1:size(aerBsc355_raman,2) % every height 
@@ -304,13 +294,11 @@
                 
             aerBsc355_raman_nddf2(i,n) = aerBsc355_raman(i,n)-aerBsc355_raman_dc2(i,n);
         end
-
         if pdr532_raman(i,n)<=dndfd_e(1,n)                
             Pndfd(i,n) = pdr532_raman(i,n); 
         else
             Pndfd(i,n) = dndfd_e(1,n);
         end
-
     end
         
     for n=1:size(aerBsc355_raman,2)
@@ -324,7 +312,6 @@
     end
    
 end
-
 %% raman 532
 for i=1:size(aerBsc532_raman,1) % raman 532 - number of profiles = 6
     for n=1:size(aerBsc532_raman,2) % every height = 4000
@@ -355,9 +342,6 @@
         else
             Pndfd(i,n) = dndfd_e(2,n);
         end
-
-
-
         end
     end
     
@@ -372,8 +356,6 @@
     end
    
 end
-
-
 %% raman 1064
 for i=1:size(aerBsc1064_raman,1)
     for n=1:size(aerBsc1064_raman,2) % every height 
@@ -399,13 +381,11 @@
                 
             aerBsc1064_raman_nddf2(i,n) = aerBsc1064_raman(i,n)-aerBsc1064_raman_dc2(i,n);
         end
-
         if pdr532_raman(i,n)<=dndfd_e(3,n)                
             Pndfd(i,n) = pdr532_raman(i,n);
         else
             Pndfd(i,n) = dndfd_e(3,n);
         end
-
     end
    
     for n=1:size(aerBsc1064_raman,2)
@@ -420,7 +400,6 @@
    
 end
 
-
 % output
 %% 355 klett
 POLIPHON2.aerBsc355_klett_d2 = aerBsc355_klett_d2;
@@ -488,6 +467,1471 @@
 POLIPHON2.err_aerBsc1064_raman_df2 = err_aerBsc1064_raman_df2;
 POLIPHON2.err_aerBsc1064_raman_nddf2 = err_aerBsc1064_raman_nddf2;
 POLIPHON2.err_aerBsc1064_raman_nd2 = err_aerBsc1064_raman_nd2;
+%% code for new conversion factors from Ansmann et al. 2026  
+% after BERTHA script from Moritz
+dcd=[0.30,0.35,0.39];   %depol coarse dust for 355, 532,1064 nm
+dfd=[0.21,0.16,0.09];   %depol fine dust for 355, 532,1064 nm
+dnd=[0.05,0.05,0.05];   %depol non dust for 355, 532,1064 nm
+% MASS CONVERSION ---------------------------------------------------------
+cv_d_mean = [0.653, 0.73, 0.823]; %"mean dust extinction-to-volume concentration conversion factor"
+cvf_d_mean = [0.124, 0.209, 0.92]; %"mean dust extinction-to-volume concentration (fine mode fraction) conversion factor"
+cvc_d_mean = [0.962, 0.891, 0.805]; %"mean dust extinction-to-volume concentration (coarse mode fraction) conversion factor" !careful here with the last entry
+vcndm =[0.75,0.75,0.75]; %volume conversion factor non-dust marine for 355,532,1064 nm
+% = cv_m_mean = [0.068, 0.085, 0.11]; %"mean marine extinction-to-volume concentration conversion factor" ??
+vcnds =[0.18,0.18,0.18];%volume conversion factor non-dust smoke for 355,532,1064 nm
+lrd=[55,55,55];         %Lidar ratio dust for 355,532,1064 nm
+lrndm=[20,20,20];       %Lidar ratio non-dust marine for 355,532,1064 nm
+lrnds=[80,80,80];       %Lidar ratio non-dust smoke for 355,532,1064 nm
+lrbb = [80, 80, 80];    %Lidar ratio biomass burning smoke for 355,532,1064 nm 
+lrvs = [80, 80, 80];    % Lidar ratio volcanic sulfate for 355, 532, 1064 nm
+rhod=2.6;               %density dust
+rhondm=1.2;             %density non dust marine
+rhonds=1.55;            %density non dust smoke
+rhobb = 1.55;           % Density biomass burning
+rhovs = 1.55;           % Density volcanic sulfate
+
+%% NUMBER AND SURFACE AREA CONVERSION (Mamouri and Ansmann 2016/ 2026) [355, 532, 1064]
+%% note:  
+% converision factors from surface area and volume concentration doesn't need to be divided by 1.33 (as before), but can be used as they are 
+% extinction exponents are not used anymore (set to 1 here)
+% for continental, AE1.6-2.0 is used here (not AE1.1-1.5)
+% for now: the lidar ratio, density, enhancement factors, extinction
+% coefficients and mass concentration from smoke are used for bb and vs! 
+
+% GLOBAL MEAN CONVERSION FACTORS ARE USED HERE!
+
+%% new variable names:
+% c100d = c100_d_mean;
+% c250d = c250_d_mean;
+% c100m = c50_m_mean;
+% c500m = c250_m_mean;
+% c60c = c50_c_1620_mean;
+% c290c = c250_c_1620_mean;
+% csd = cs_d_mean;
+% csm = cs_m_mean;
+% csc = cs_c_1620_mean
+%% not used anymore, 1s for simplicity:
+chid = [1, 1, 1]; %extinction exponent for dust MEAN
+chic = [1, 1, 1]; %extinction exponent for continental aerosol MEAN
+chim = [1, 1, 1]; %extinction exponent for marine aerosol on Barbados
+chibb = [1, 1, 1]; %extinction exponent for biomass burning smoke MEAN
+chivs = [1, 1, 1]; %extinction exponent for vulcanic sulfate MEAN
+%% new conversion factors from Ansmann et al. 2026 (all_types_mean_poliphon_conversion_factors_Ansmann_2026_v20260223.nc):
+
+% dust:
+%c60_d_mean = [9.04, 10.8, 11.8]; % "mean dust extinction-to-number concentration (r>60 nm) conversion factor"
+c100_d_mean = [1.74, 1.92, 2.18]; %"mean dust extinction-to-number concentration (r>100 nm) conversion factor"
+c250_d_mean = [0.144, 0.16, 0.182]; %"mean dust extinction-to-number concentration (r>250 nm) conversion factor"
+cs_d_mean = [2.11, 2.34, 2.75];  %"mean dust extinction-to-surface area concentration conversion factor"
+%cs100_d_mean = [1.46, 1.61, 1.83]; %"mean dust extinction-to-surface area concentration (r>100 nm) conversion factor"
+
+% continental:
+c50_c_1620_mean = [8.15, 16.65, 47.22]; %"mean continental pollution extinction-to-number concentration (r>50 nm,dry) conversion factor (AE1.6-2.0)"
+c250_c_1620_mean = [0.0419, 0.0821, 0.253]; %"mean continental pollution extinction-to-number concentration (r>250 nm,dry) conversion factor (AE1.6-2.0)"
+%cv_c_1620_mean = [0.104, 0.193, 0.62]; %"mean continental pollution extinction-to-volume concentration conversion factor (AE1.6-2.0)"
+cs_c_1620_mean = [1.22, 2.34, 7.31]; %"mean continental pollution extinction-to-surface area concentration conversion factor (AE1.6-2.0)"
+% c50_c_1115_mean = [7.56, 13.7, 30.52]; %"mean continental pollution extinction-to-number concentration (r>50 nm,dry) conversion factor (AE1.1-1.5)"
+% c250_c_1115_mean = [0.0556, 0.1, 0.224]; %"mean continental pollution extinction-to-number concentration (r>250 nm,dry) conversion factor (AE1.1-1.5)"
+% cv_c_1115_mean = [0.13, 0.22, 0.538]; %"mean continental pollution extinction-to-volume concentration conversion factor (AE1.1-1.5)"
+%cs_c_1115_mean = [1.16, 1.99, 4.79]; %"mean continental pollution extinction-to-surface area concentration conversion factor (AE1.1-1.5)"
+
+% marine:
+c50_m_mean = [2.74, 3.49, 4.49]; %"mean marine extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_m_mean = [0.0487, 0.0621, 0.0797]; %"mean marine extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_m_mean = [0.468, 0.58, 0.75];    %"mean marine extinction-to-surface area concentration conversion factor"
+
+% biomass burning smoke
+c50_bbt_mean = [8.5, 15.35, 65.22]; %"mean tropospheric biomass burning smoke extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_bbt_mean = [0.0973, 0.326, 0.718]; %"mean tropospheric biomass burning smoke extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_bbt_mean = [1.69, 3.0, 12.81]; %"mean tropospheric biomass burning smoke extinction-to-surface area concentration conversion factor"
+cv_bbt_mean = [0.091, 0.161, 0.674]; %"mean tropospheric biomass burning smoke extinction-to-volume concentration conversion factor"
+c50_bbsf_mean = [6.37, 10.87, 36.58]; %"mean fresh statospheric biomass burning smoke extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_bbsf_mean = [0.12, 0.187, 0.726]; %"mean fresh statospheric biomass burning smoke extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_bbsf_mean = [1.45, 2.36, 7.2]; %"mean fresh statospheric biomass burning smoke extinction-to-surface area concentration conversion factor"
+cv_bbsf_mean = [0.087, 0.133, 0.519]; %"fresh statospheric biomass burning smoke extinction-to-volume concentration conversion factor"
+c50_bbsa_mean = [6.37, 7.33, 18.53]; %"mean aged statospheric biomass burning smoke extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_bbsa_mean = [0.306, 0.39, 0.912]; %"mean aged statospheric biomass burning smoke extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_bbsa_mean = [1.45, 1.98, 5.14]; %"mean aged statospheric biomass burning smoke extinction-to-surface area concentration conversion factor"
+cv_bbsa_mean = [0.098, 0.126, 0.361]; %"mean aged statospheric biomass burning smoke extinction-to-volume concentration conversion factor"
+
+% vulcanic sulfate fresh (stratospheric)
+c50_vsf_mean = [4.3, 4.74, 10.79]; %"mean fresh stratospheric volcanic sulfate extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_vsf_mean = [0.411, 0.504, 1.055]; %"mean fresh stratospheric volcanic sulfate extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_vsf_mean = [1.34, 1.55, 2.52]; %"mean fresh stratospheric volcanic sulfate extinction-to-surface area concentration conversion factor"
+cv_vsf_mean = [0.13, 0.158, 0.318]; %"mean fresh stratospheric volcanic sulfate extinction-to-volume concentration conversion factor"
+
+% volcanic sulfate aged (stratospheric)
+c50_vsa_mean = [nan, 5.38, 13.88]; %"mean aged stratospheric volcanic sulfate extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_vsa_mean = [nan, 0.485, 1.322]; %"mean aged stratospheric volcanic sulfate extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_vsa_mean = [nan, 1.7, 4.41]; %"mean aged stratospheric volcanic sulfate extinction-to-surface area concentration conversion factor"
+cv_vsa_mean = [nan, 0.147, 0.38]; %"mean aged stratospheric volcanic sulfate extinction-to-volume concentration conversion factor"
+
+% vulcanic sulfate (tropospheric)
+c50_vst_mean = [6.58, 9.61, 19.31]; % "mean tropospheric volcanic sulfate extinction-to-number concentration (r>50 nm,dry) conversion factor"
+c250_vst_mean = [0.174, 0.279, 0.676]; % "mean tropospheric volcanic sulfate extinction-to-number concentration (r>250 nm,dry) conversion factor"
+cs_vst_mean = [1.28, 1.87, 3.8]; % "mean tropospheric volcanic sulfate extinction-to-surface area concentration conversion factor"
+cv_vst_mean = [0.087, 0.129, 0.293]; % "mean tropospheric volcanic sulfate extinction-to-volume concentration conversion factor"
+
+%% enhancement factors and backscatter coeffs
+fssd=1.0;               % enhancement factor for dust for different super saturations (ss=0.15% -> f=1; ss=0.25% -> f=1.35; ss=0.4% -> f=1.7)
+fssc=1.0;               % enhancement factor for continental aerosol for different super saturations (till now, it is the same for every aerosol type)
+fssm=1.0;               % enhancement factor for marine aerosol for different super saturations (till now, it is the same for every aerosol type)
+fssbb = 1.0;               % Enhancement factor biomass burning
+fssvs = 1.0;               % Enhancement factor volcanic sulfate
+
+% %backscatter coeffs
+% %Bb=[aerBsc355_klett,aerBsc532_klett,aerBsc1064_klett] %if klett
+% Bb=[aerBsc355_raman, aerBsc532_raman, aerBsc1064_raman]; %if raman
+% % depol ratios
+% %Pb=[pdr355_klett,pdr532_klett,pdr1064_klett] % if klett
+% Pb=[pdr355_raman, pdr532_raman, pdr1064_raman]; % if raman
+
+%% method 1 = raman; 2 = klett
+POLIPHON2 = struct();
+for method = 1:2
+    if method == 1
+        Bb = [aerBsc355_raman(1,:).', aerBsc532_raman(1,:).', aerBsc1064_raman(1,:).'];
+        Bd1 = [aerBsc355_raman_d2(1,:).', aerBsc532_raman_d2(1,:).', aerBsc1064_raman_d2(1,:).'];
+        Bnd1 =[aerBsc355_raman_nd2(1,:).', aerBsc532_raman_nd2(1,:).', aerBsc1064_raman_nd2(1,:).'];
+
+        Bcd_profile = [aerBsc355_raman_dc2(1,:).', aerBsc532_raman_dc2(1,:).', aerBsc1064_raman_dc2(1,:).'];
+        Bfd_profile = [aerBsc355_raman_df2(1,:).', aerBsc532_raman_df2(1,:).', aerBsc1064_raman_df2(1,:).'];
+        Bnd2_profile = [aerBsc355_raman_nd2(1,:).', aerBsc532_raman_nd2(1,:).', aerBsc1064_raman_nd2(1,:).'];
+    elseif method == 2
+        Bb = [aerBsc355_klett(1,:).', aerBsc532_klett(1,:).', aerBsc1064_klett(1,:).'];
+        Bd1 = [aerBsc355_klett_d2(1,:).', aerBsc532_klett_d2(1,:).', aerBsc1064_klett_d2(1,:).'];
+        Bnd1 =[aerBsc355_klett_nd2(1,:).', aerBsc532_klett_nd2(1,:).', aerBsc1064_klett_nd2(1,:).'];
+
+        Bcd_profile = [aerBsc355_klett_dc2(1,:).', aerBsc532_klett_dc2(1,:).', aerBsc1064_klett_dc2(1,:).'];
+        Bfd_profile = [aerBsc355_klett_df2(1,:).', aerBsc532_klett_df2(1,:).', aerBsc1064_klett_df2(1,:).'];
+        Bnd2_profile = [aerBsc355_klett_nd2(1,:).', aerBsc532_klett_nd2(1,:).', aerBsc1064_klett_nd2(1,:).'];
+    else
+        disp('NO VALID METHOD') % '' instead of ""
+    end
+
+    %% Convert backscatter from m^-1 sr^-1 to Mm^-1 sr^-1 
+    Bb = Bb * 1e6;
+    Bd1 = Bd1 * 1e6;
+    Bnd1 = Bnd1 * 1e6;
+    Bcd_profile = Bcd_profile * 1e6;
+    Bfd_profile = Bfd_profile * 1e6;
+    Bnd2_profile = Bnd2_profile * 1e6;
+ 
+    
+    %% from here on copy of moritz´ bertha script
+    
+        % EXTINCTION and MASS CONVERSION----------------------------------------------------------
+        % cv_d_mean=[0.64,0.64,0.64];    %volume conversion factor dust for 355,532,1064 nm
+        % cvc_d_mean=[0.79,0.79,0.79];   %volume conversion factor coarse dust for 355,532,1064 nm
+        % cvf_d_mean=[0.21,0.21,0.21];   %volume conversion factor fine dust for 355,532,1064 nm
+        % lrd=[55,55,55];          %Lidar ratio dust for 355,532,1064 nm
+        % rhod=2.6;                %Dichte dust
+        
+        Ad=(1:3);       %extinction coefficient for dust
+        Acd=(1:3);      %extinction coefficient for coarse dust
+        Afd=(1:3);      %extinction coefficient for fine dust
+        Andm1=(1:3);    %extinction coefficient for non-dust marine
+        Ands1=(1:3);    %extinction coefficient for non-dust smoke
+        Ad2=(1:3);      %extinction coefficient for dust 2 step
+        Andm2=(1:3);    %...
+        Ands2=(1:3);
+        Abb = zeros(size(Bb));     % Extinction coefficient for biomass burning (tropospheric)
+        Avsf = zeros(size(Bb));    % Extinction coefficient for volcanic sulfate (fresh)
+        Avsa = zeros(size(Bb));    % Extinction coefficient for volcanic sulfate (aged)
+        Avst = zeros(size(Bb));     % % Extinction coefficient for volcanic sulfate (topospheric)
+        
+        Md=(1:3);       %mass concentration for dust
+        Mcd=(1:3);      %...
+        Mfd=(1:3);
+        Mndm1=(1:3);
+        Mnds1=(1:3);
+        Mndm2=(1:3);
+        Mnds2=(1:3);
+        Mbb = zeros(size(Bb));     % Mass concentration for biomass burning
+        Mvsf = zeros(size(Bb));    % Mass concentration for volcanic sulfate (fresh)
+        Mvsa = zeros(size(Bb));    % Mass concentration for volcanic sulfate (aged)
+        Mvst = zeros(size(Bb));     % Mass concentration for volcanic sulfate (tropospheric)
+        rel_fine_total_mass_conc=(1:3);
+        rel_fine_total_ext=(1:3);
+    
+        for i=1:3
+            for n=1:size(Bb,1)
+                Ad(n,i)=lrd(i)*Bd1(n,i);
+                Acd(n,i)=lrd(i)*Bcd_profile(n,i);
+                Afd(n,i)=lrd(i)*Bfd_profile(n,i);
+                Ad2(n,i)=Acd(n,i)+Afd(n,i);
+                Andm1(n,i)=lrndm(i)*Bnd1(n,i);
+                Ands1(n,i)=lrnds(i)*Bnd1(n,i);
+                Andm2(n,i)=lrndm(i)*Bnd2_profile(n,i);
+                Ands2(n,i)=lrnds(i)*Bnd2_profile(n,i);
+                Abb(n,i) = lrbb(i) * Bnd1(n,i); % bb
+                Avsf(n,i) = lrvs(i) * Bnd1(n,i); % vs fresh
+                Avsa(n,i) = lrvs(i) * Bnd1(n,i); % vs aged
+                Avst(n, i) = lrvs(i) * Bnd1(n, i); % vs tropospheric
+                Md(n,i)=rhod*cv_d_mean(i)*lrd(i)*Bd1(n,i);
+                Mcd(n,i)=rhod*cvc_d_mean(i)*lrd(i)*Bcd_profile(n,i);
+                Mfd(n,i)=rhod*cvf_d_mean(i)*lrd(i)*Bfd_profile(n,i);
+                Mndm1(n,i)=rhondm*vcndm(i)*lrndm(i)*Bnd1(n,i);
+                Mnds1(n,i)=rhonds*vcnds(i)*lrnds(i)*Bnd1(n,i);
+                Mndm2(n,i)=rhondm*vcndm(i)*lrndm(i)*Bnd2_profile(n,i);
+                Mnds2(n,i)=rhonds*vcnds(i)*lrnds(i)*Bnd2_profile(n,i);
+                Md2(n,i)=Mfd(n,i)+Mcd(n,i);
+                Mbb(n,i) = rhobb * cv_bbt_mean(i) * lrbb(i) * Bnd1(n,i); % bb
+                Mvsf(n,i) = rhovs * cv_vsf_mean(i) * lrvs(i) * Bnd1(n,i); % vs fresh
+                Mvsa(n,i) = rhovs * cv_vsa_mean(i) * lrvs(i) * Bnd1(n,i); % vs aged
+                Mvst(n, i) = rhovs * cv_vst_mean(i) * lrvs(i) * Bnd1(n,i); % vs tropospheric
+                rel_fine_total_mass_conc(n,i)=Mfd(n,i)/Md2(n,i);
+                rel_fine_total_ext(n,i)=Afd(n,i)/Ad2(n,i);
+                
+                if Abb(n,i) < 0.0; Abb(n,i) = 0; end % for handling NaN values
+                if Avsf(n,i) < 0.0; Avsf(n,i) = 0; end % for handling NaN values
+                if Avsa(n,i) < 0.0 || isnan(Avsa(n,i)); Avsa(n,i) = 0; end % for handling NaN values
+                if Avst(n,i) < 0.0; Avst(n,i) = 0; end
+                if Ad(n,i) < 0.0
+                    Ad(n,i)=0; 
+                end
+                if Andm1(n,i) < 0.0
+                    Andm1(n,i)=0; 
+                end     
+                if Ands1(n,i) < 0.0
+                    Ands1(n,i)=0; 
+                end   
+                if Ad2(n,i) < 0.0
+                    Ad2(n,i)=0;
+                end
+                if Andm2(n,i) < 0.0
+                    Andm2(n,i)=0; 
+                end     
+                if Ands2(n,i) < 0.0
+                    Ands2(n,i)=0; 
+                end  
+            end
+        end
+    
+        % INTEGRATED/COLUMN MASS CONCENTRATION (g m^-2) up to 5km height ----------------
+        % integrated mass from 1-step Abbroach
+        % int_mass_d1=(1:3);
+        % int_mass_cd=(1:3);
+        % int_mass_fd=(1:3);
+        % int_mass_d2=(1:3);
+    
+        c = 1;
+        s = 1:c;
+        for i=1:3
+            int_mass_d1(s,i)=0;
+            int_mass_cd(s,i)=0;
+            int_mass_fd(s,i)=0;
+            int_mass_d2(s,i)=0;
+            for n=1:657
+                int_mass_d1(s,i)=int_mass_d1(s,i)+Md(n,i)*7.5*1.E-06;
+                int_mass_cd(s,i)=int_mass_cd(s,i)+Mcd(n,i)*7.5*1.E-06;
+                int_mass_fd(s,i)=int_mass_fd(s,i)+Mfd(n,i)*7.5*1.E-06;
+                int_mass_d2(s,i)=int_mass_d2(s,i)+(Mcd(n,i)+Mfd(n,i))*7.5*1.E-06;
+            end
+        end
+    
+    
+        %% /////////////////\\\\\\\\\\\\\\\\\\\\\\\\\\\\//////////////////////////
+        %-------CCN-&-INP-CALCULATIONS-----------------------------------------------
+        %\\\\\\\\\\\\\\\\\\//////////////////////////\\\\\\\\\\\\\\\\\\\\\\\\\\\\
+        %Profiles of number and surface area concentration for different
+        %aerosoltypes, depending on height (n) and wavelength (i)
+        n_100_d=(1:3);        %number concentration of dust aerosol > 100nm
+        n_50_c=(1:3);         %number concentration of continental aerosol > 50nm
+        n_50_m=(1:3);         %number concentration of marine aerosol > 50nm
+        n_250_d=(1:3);        %number concentration of dust aerosol > 250nm
+        n_250_c=(1:3);        %number concentration of continental aerosol > 250nm
+        n_250_m=(1:3);        %number concentration of marine aerosol > 250nm
+        n_50_bb = (1:3);      %number concentration of biomass burning smoke aerosol > 50nm
+        n_50_vsf = (1:3);     %number concentration of fresh vulcanic sulfate aerosol > 50nm
+        n_50_vsa = (1:3);     %number concentration of aged vulcanic sulfate aerosol > 50nm
+        n_50_vst = (1:3);     %number concentration of tropospheric vulcanic sulfate aerosol > 50nm
+        n_250_bb = (1:3);     %number concentration of biomass burning smoke aerosol > 250nm
+        n_250_vsf = (1:3);    %number concentration of fresh vulcanic sulfate aerosol > 250nm
+        n_250_vsa = (1:3);    %number concentration of aged vulcanic sulfate aerosol > 250nm
+        n_250_vst = (1:3);    %number concentration of tropospheric vulcanic sulfate aerosol > 250nm
+        Sd=(1:3);           %surface area concentration of dust aerosol 
+        Sc=(1:3);           %surface area concentration of continental aerosol   
+        Sm=(1:3);           %surface area concentration of marine aerosol  
+        Sbb = (1:3);        %surface area concentration of burning biomass aerosol 
+        Svsf = (1:3);       %surface area concentration of fresh vulcanic sulfate aerosol 
+        Svsa = (1:3);       %surface area concentration of aged vulcanic sulfate aerosol
+        Svst = (1:3);       %surface area concentration of tropospheric vulcanic sulfate aerosol
+        
+        CCNd=(1:3);         %number concentration of CCN from dust
+        CCNc=(1:3);         %number concentration of CCN from continental aerosol
+        CCNm=(1:3);         %number concentration of CCN from marine
+        CCN=(1:3);          %total number concentration of CCN 
+        CCNbb = (1:3);      %total number concentration of CCN from biomass burning smoke
+        CCNvsf = (1:3);     %total number concentration of CCN from fresh vulcanic sulfate
+        CCNvsa = (1:3);     %total number concentration of CCN from aged vulcanic sulfate
+        CCNvst = (1:3);     %total number concentration of CCN from tropospheric vulcanic sulfate
+        
+    for i=1:3 
+    %    i=2;        %only 532
+        for n=1:size(Bb,1)
+            n_100_d(n,i)=c100_d_mean(i)*Ad(n,i)^chid(i);     % 1-step dust extinction is used   
+            n_50_c(n,i)=c50_c_1620_mean(i)*Ands1(n,i)^chic(i);         %no continental aerosol on Barbados, extinction coef. for smoke used here, which is not correct. Conversion factors for smoke needed. Further on only sepatration between marine and dust for Barbados.
+            n_50_m(n,i)=c50_m_mean(i)*Andm1(n,i)^chim(i);    % 1-step non-dust marine extinction used 
+            n_250_d(n,i)=c250_d_mean(i)*Ad(n,i);      
+            n_250_c(n,i)=c250_c_1620_mean(i)*Ands1(n,i);         
+            n_250_m(n,i)=c250_m_mean(i)*Andm1(n,i);  
+            n_50_bb(n,i) = c50_bbt_mean(i) * Abb(n,i)^chibb(i);
+            n_250_bb(n,i) = c250_bbt_mean(i) * Abb(n,i);
+            n_50_vsf(n,i) = c50_vsf_mean(i) * Avsf(n,i)^chivs(i);
+            n_250_vsf(n,i) = c250_vsf_mean(i) * Avsf(n,i);
+            %n_50_vsa(n,i) = c50_vsa_mean(i) * Avsa(n,i)^chivs(i);
+            %n_250_vsa(n,i) = c250_vsa_mean(i) * Avsa(n,i);
+            n_50_vst(n,i) = c50_vst_mean(i) * Avst(n,i)^chivs(i);
+            n_250_vst(n,i) = c250_vst_mean(i) * Avst(n,i);
+            Sd(n,i)=cs_d_mean(i)*10^(-12)*Ad(n,i);         %factor 10^-12 Mm m^2 cm^-3 from units in head of Table 3 (M&A2016)
+            Sc(n,i)=cs_c_1620_mean(i)*10^(-12)*Ands1(n,i);          % cs_c_1620_mean is used (not cs_c_1115_mean) 
+            Sm(n,i)=cs_m_mean(i)*10^(-12)*Andm1(n,i);
+            Sbb(n,i) = cs_bbt_mean(i) * 10^(-12) * Abb(n,i);
+            Svsf(n,i) = cs_vsf_mean(i) * 10^(-12) * Avsf(n,i);
+            Svst(n,i) = cs_vst_mean(i) * 10^(-12) * Avst(n,i);
+            %Svsa(n,i) = cs_vsa_mean(i) * 10^(-12) * Avsa(n,i);
+            CCNd(n,i)=fssd*n_100_d(n,i);
+            CCNc(n,i)=fssc*n_50_c(n,i);
+            CCNm(n,i)=fssm*n_50_m(n,i);
+            CCN(n,i)=CCNd(n,i)+CCNm(n,i);       %continental is not considered here, only dust and non-dust-marine, because there is no separation of the non-dust contribution between continental and marine, the calculation take the total non-dust eigther as marine or as smoke
+            CCNbb(n,i) = fssbb * n_50_bb(n,i);
+            CCNvsf(n,i) = fssvs * n_50_vsf(n,i);
+            CCNvst(n,i) = fssvs * n_50_vst(n,i);
+            %CCNvsa(n,i) = fssvs * n_50_vsa(n,i);
+            % % cf for aged vulcanic sulfate for 355 is nan (will crash when
+            % multiplying with extinction coeff), therefore:
+            if ~isnan(c50_vsa_mean(i))  
+                n_50_vsa(n,i) = c50_vsa_mean(i) * Avsa(n,i)^chivs(i);
+                n_250_vsa(n,i) = c250_vsa_mean(i) * Avsa(n,i);
+                Svsa(n,i) = cs_vsa_mean(i) * 10^(-12) * Avsa(n,i);
+                CCNvsa(n,i) = fssvs * n_50_vsa(n,i);
+            else
+                n_50_vsa(n,i) = 0; n_250_vsa(n,i) = 0; Svsa(n,i) = 0; CCNvsa(n,i) = 0;
+            end
+            if n_250_d(n,i) < 0.0
+               n_250_d(n,i)=0; 
+            end
+            if n_250_c(n,i) < 0.0
+               n_250_c(n,i)=0; 
+            end
+            if n_250_m(n,i) < 0.0
+               n_250_m(n,i)=0; 
+            end
+            if Sd(n,i) < 0.0
+               Sd(n,i)=0; 
+            if n_250_bb(n,i) < 0.0
+               n_250_bb(n,i) = 0; 
+            end
+            if Sbb(n,i) < 0.0 
+               Sbb(n,i) = 0; 
+            end
+            if n_250_vsf(n,i) < 0.0 
+               n_250_vsf(n,i) = 0; 
+            end
+            if Svsf(n,i) < 0.0 
+               Svsf(n,i) = 0; 
+            end
+            if n_250_vst(n,i) < 0.0 
+               n_250_vst(n,i) = 0; 
+            end
+            if n_250_vsa(n,i) < 0.0
+               n_250_vsa(n,i) = 0; 
+            end
+            if Svsa(n,i) < 0.0
+               Svsa(n,i) = 0; 
+            end
+           end
+        end
+    end
+        
+    %INP-Calculations after DeMott 2010 -> continental, DeMott2015 
+    % -> Dust  for ambient conditions (T, p) _amb
+    %for dust after Monika Niemand 2012 and Isabelle Steinke 2015
+           INPc_d10_amb=zeros(size(Bb));       %profile INP concentration of continental aerosol 
+           INPm_d10_amb=zeros(size(Bb));      %profile INP concentration of marine aerosol 
+           %Dust parametrizations
+           INPd_d10_amb=zeros(size(Bb));       %profile INP concentration of dust, using the general DeMott 2010 parametrization 
+           INPd_d15_amb=zeros(size(Bb));       %profile INP concentration of dust, using the dust specific DeMott 2015 parametrization
+           INPd_n12_amb=zeros(size(Bb));       %profile INP concentration of dust, using the dust specific Niemand 2012 parametrization
+           INPd_s15_amb=zeros(size(Bb));       %profile INP concentration of dust, using the dust specific Steinke 2015 parametrization
+           INPbb_d10_amb = zeros(size(Bb));  %profile INP concentration of biomass burning smoke, using the general DeMott 2010 parametrization
+           INPvsf_d10_amb = zeros(size(Bb)); %profile INP concentration of fresh vulcanic sulfate, using the general DeMott 2010 parametrization
+           INPvst_d10_amb = zeros(size(Bb)); %profile INP concentration of tropospheric vulcanic sulfate, using the general DeMott 2010 parametrization
+           INPvsa_d10_amb = zeros(size(Bb)); %profile INP concentration of aged vulcanic sulfate, using the general DeMott 2010 parametrization
+           % only d10 for bb, vsf and vsa?
+          
+    
+    
+    Temp = temperature(1,:).';
+    Pres = pressure(1,:).';
+    Hs = NaN(size(Temp));
+    
+    Sonde=[Hs,Temp,Pres];
+    % Sonde(n,2) = data.temperature
+    % Sonde(n,3) = data.pressure
+    
+    for i=1:3
+    %    i=2;        %only 532
+       for n=1:size(Bb,1)
+           if Sonde(n,2)>273.16
+               INPc_d10_amb(n,i)=0.0;
+               INPm_d10_amb(n,i)=0.0;
+               INPd_d10_amb(n,i)=0.0;          
+               INPd_d15_amb(n,i)=0.0;
+               INPd_n12_amb(n,i)=0.0;
+               INPd_s15_amb(n,i)=0.0;
+               INPbb_d10_amb(n,i) = 0.0;
+               INPvsf_d10_amb(n,i) = 0.0;
+               INPvsa_d10_amb(n,i) = 0.0;
+               INPvst_d10_amb(n,i) = 0.0;
+           else
+               INPd_d10_amb(n,i)=(273.16*Sonde(n,3)/Sonde(n,2)/1013)*0.0000594*(273.16-Sonde(n,2))^3.33*n_250_d(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+               INPc_d10_amb(n,i)=(273.16*Sonde(n,3)/Sonde(n,2)/1013)*0.0000594*(273.16-Sonde(n,2))^3.33*n_250_c(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+               INPm_d10_amb(n,i)=(273.16*Sonde(n,3)/Sonde(n,2)/1013)*0.0000594*(273.16-Sonde(n,2))^3.33*n_250_m(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033)/350;   %same parametrization as continental but with n_250_m as input and divided by 350 (DeMott2015b)
+               INPd_d15_amb(n,i)=(273.16*Sonde(n,3)/Sonde(n,2)/1013)*3*n_250_d(n,i)^1.25*exp(0.46*(273.16-Sonde(n,2))-11.6);     
+               INPd_n12_amb(n,i)=1000*Sd(n,i)*exp(-0.517*(Sonde(n,2)-273.16)+8.934);
+               INPd_s15_amb(n,i)=1000*Sd(n,i)*1.88e5*exp(0.2659*(-(Sonde(n,2)-273.16)+(1.15-1)*100));
+               INPbb_d10_amb(n,i) = (273.16*Sonde(n,3)/Sonde(n,2)/1013) * 0.0000594 * (273.16-Sonde(n,2))^3.33 * n_250_bb(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+               INPvsf_d10_amb(n,i) = (273.16*Sonde(n,3)/Sonde(n,2)/1013) * 0.0000594 * (273.16-Sonde(n,2))^3.33 * n_250_vsf(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+               INPvsa_d10_amb(n,i) = (273.16*Sonde(n,3)/Sonde(n,2)/1013) * 0.0000594 * (273.16-Sonde(n,2))^3.33 * n_250_vsa(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+               INPvst_d10_amb(n,i) = (273.16*Sonde(n,3)/Sonde(n,2)/1013) * 0.0000594 * (273.16-Sonde(n,2))^3.33 * n_250_vst(n,i)^(0.0265*(273.16-Sonde(n,2))+0.0033);
+           end
+       end    
+    end
+     
+    %INP calculations for fixed temperatures t , -15°, -20° C ...
+    INPd_d10=zeros(size(Bb,1), 3, 7); % maybe use zeros(size(Bb,1), 3, 7); instead of zeros(2,2,2); ?
+    INPc_d10=zeros(size(Bb,1), 3, 7);
+    INPm_d10=zeros(size(Bb,1), 3, 7);
+    INPd_d15=zeros(size(Bb,1), 3, 7);
+    INPd_n12=zeros(size(Bb,1), 3, 7);
+    INPd_s15=zeros(size(Bb,1), 3, 7);
+    INPbb_d10 = zeros(size(Bb,1), 3, 7);
+    INPvsf_d10 = zeros(size(Bb,1), 3, 7);
+    INPvsa_d10 = zeros(size(Bb,1), 3, 7);
+    INPvst_d10 = zeros(size(Bb,1), 3, 7);
+    for t=1:7
+        INtemp=t*(-5);
+        for i=1:3
+            for n=1:size(Bb,1)
+               INPd_d10(n,i,t)=0.0000594*(-INtemp)^3.33*n_250_d(n,i)^(0.0265*(-INtemp)+0.0033);
+               INPc_d10(n,i,t)=0.0000594*(-INtemp)^3.33*n_250_c(n,i)^(0.0265*(-INtemp)+0.0033);
+               INPm_d10(n,i,t)=0.0000594*(-INtemp)^3.33*n_250_m(n,i)^(0.0265*(-INtemp)+0.0033)/350;   %same parametrization as continental but with n_250_m as input and divided by 350 (DeMott2015b)
+               INPd_d15(n,i,t)=3*n_250_d(n,i)^1.25*exp(0.46*(-INtemp)-11.6);     
+               INPd_n12(n,i,t)=1000*Sd(n,i)*exp(-0.517*(INtemp)+8.934);
+               INPd_s15(n,i,t)=1000*Sd(n,i)*1.88e5*exp(0.2659*(-(INtemp)+(1.15-1)*100));
+               INPbb_d10(n,i,t) = 0.0000594*(-INtemp)^3.33 * n_250_bb(n,i)^(0.0265*(-INtemp)+0.0033);
+               INPvsf_d10(n,i,t) = 0.0000594*(-INtemp)^3.33 * n_250_vsf(n,i)^(0.0265*(-INtemp)+0.0033);
+               INPvsa_d10(n,i,t) = 0.0000594*(-INtemp)^3.33 * n_250_vsa(n,i)^(0.0265*(-INtemp)+0.0033);
+               INPvst_d10(n,i,t) = 0.0000594*(-INtemp)^3.33 * n_250_vst(n,i)^(0.0265*(-INtemp)+0.0033);
+            end
+        end
+    end
+    
+    % For marine areosol
+    % 
+    % McCluskey et al. 2018ab
+    % def n_s_m(Tz):  %m^-2
+    %      "calculates ice nucleation actvie site density [m^-2] of marine aerosol as a fct of temperature. input: temperature profile Tz [K]"
+    %      n_s_m=np.zeros(len(Tz))
+    %      a=-0.545
+    %      b=1.0125
+    %      for i in range(0,len(Tz),1):
+    %          if (Tz[i]>237.16 and Tz[i]<261.16): % validity range
+    %              n_s_m[i]=np.exp( a * ( Tz[i]-273.16 ) + b)  %m^-2
+    %          else:
+    %              n_s_m[i]=np.nan
+    
+    %     return n_s_m
+    
+    %% Uncertainties from Ansmann et al. 2026 (not published 27.04.2026)
+    % Lidar observation
+    unc_pbc = 0.1; % Uncertainty of Particle backscatter coefficient: 10%
+    unc_pec = 0.2; % Uncertainty of Particle extinction coefficient: 20%
+    % Primary retrieval products
+    unc_pnc50 = 0.5; % Uncertarinty of Particle number concentration (r>50 nm): 50%
+    unc_pnc100 = 0.5; % Uncertarinty of Particle number concentration (r>100 nm): 50%
+    unc_pnc250 = 0.3; % Uncertarinty of Particle number concentration (r>250 nm): 50%
+    unc_psc = 0.3; % Uncertainty of Particle surface concentration: 30%
+    unc_pvc = 0.3; % Uncertainty of Particle volume concentration: 30%
+    % Products for environmental and cloud studies
+    unc_pmc = 0.3; % Uncertainty of Partice mass concentration: 30%
+    unc_CCNcmbb = 0.5; % Uncertainty for CCN concentration of continental, marine alnd biomass burning smoke: 50%
+    unc_CCNd = 0.5; % Uncertainty for CCN concentration of dust: 50%
+    % unc_INPd = ?; % Uncertainty for INP concentration of dust (d15,IF,n_250_,d,dry): factor 2
+    % unc_INPc = ?; % Uncertainty for INP concentration of continental (d10,IF,n_250_,c,dry): factor 2
+    % unc_INPd = ?; % Uncertainty for INP concentration of dust (U17,DIN,sd,dry): factor 2
+    % unc_INPdbb = ?; % Uncertainty for INP concentration of dust and biomass burning smoke (KA13,ABIFM,s_,dry): factor 2
+    % unc_INPdbb = ?; % Uncertainty for INP concentration of dust and biomass burning smoke (W12,DIN,s_,dry): factor 2
+    % unc_INPvs = ?; % Uncertainty for INP concentration of vulcanic sulfate (K00,HOM,v_vs,dry): factor 2
+    
+    %% ERROR CALCULATION -------------------------------------------------------
+    
+    % error_mass_dust = let empty = NaN
+    % Sonde = temp/ press
+    
+    % ERROR CALCULATION -------------------------------------------------------
+    
+        error_mass_dust_height = NaN;
+        error_mass_coarse_dust_height = NaN;
+        error_mass_smoke_height = NaN;
+        error_mass_marine_height = NaN;
+        error_mass_bb_height = NaN;
+        error_mass_vs_height = NaN;
+    
+        % according to error heights which are set above error values are only
+        % written in the predefined heights, rest is filled with NaN --> for plots
+        % in Grapher
+        for i=1:3
+            for n=1:size(Bb,1)
+                % Dust Errors
+                for k=1:size(error_mass_dust_height,2)
+                    if error_mass_dust_height(k)==n
+                        error_Md(n,i)         = unc_pmc * Md(n,i);
+                        error_Mcd_temp(n,i)   = unc_pmc * Mcd(n,i);
+                        error_Mfd(n,i)        = unc_pmc * Mfd(n,i);
+                        error_Ad(n,i)         = unc_pec * Ad(n,i);
+                        error_Afd(n,i)        = unc_pec * Afd(n,i);
+                        error_Ad2(n,i)        = unc_pec * Ad2(n,i);
+                        error_Md2(n,i)        = error_Mfd(n,i) + error_Mcd_temp(n,i);
+                        break;
+                    else
+                        error_Md(n,i)         = NaN;
+                        error_Mcd_temp(n,i)   = NaN;
+                        error_Mfd(n,i)        = NaN;
+                        error_Ad(n,i)         = NaN;
+                        error_Afd(n,i)        = NaN;
+                        error_Ad2(n,i)        = NaN;
+                        error_Md2(n,i)        = NaN; 
+                    end
+                end
+                
+                % Coarse Dust Errors
+                for k=1:size(error_mass_coarse_dust_height,2)
+                    if error_mass_coarse_dust_height(k)==n
+                        error_Mcd(n,i) = unc_pmc * Mcd(n,i);
+                        error_Acd(n,i) = unc_pec * Ad(n,i); 
+                        break;
+                    else
+                        error_Mcd(n,i) = NaN;
+                        error_Acd(n,i) = NaN;
+                    end
+                end
+                
+                % Smoke Errors
+                for k=1:size(error_mass_smoke_height,2)
+                    if error_mass_smoke_height(k)==n
+                        error_Mnds1(n,i) = unc_pmc * Mnds1(n,i);
+                        error_Mnds2(n,i) = unc_pmc * Mnds2(n,i);
+                        error_Ands1(n,i) = unc_pec * Ands1(n,i);
+                        error_Ands2(n,i) = unc_pec * Ands2(n,i);
+                        break;
+                    else
+                        error_Mnds1(n,i) = NaN;
+                        error_Mnds2(n,i) = NaN;
+                        error_Ands1(n,i) = NaN;
+                        error_Ands2(n,i) = NaN;
+                    end
+                end
+                
+                % Marine Errors
+                for k=1:size(error_mass_marine_height,2)
+                    if error_mass_marine_height(k)==n
+                        error_Mndm1(n,i) = unc_pmc * Mndm1(n,i);
+                        error_Mndm2(n,i) = unc_pmc * Mndm2(n,i);
+                        error_Andm1(n,i) = unc_pec * Andm1(n,i);
+                        error_Andm2(n,i) = unc_pec * Andm2(n,i);
+                        break;
+                    else
+                        error_Mndm1(n,i) = NaN;
+                        error_Mndm2(n,i) = NaN;
+                        error_Andm1(n,i) = NaN;
+                        error_Andm2(n,i) = NaN;
+                    end
+                end
+                
+                % Biomass Burning Errors
+                for k=1:size(error_mass_bb_height,2)
+                    if error_mass_bb_height(k)==n
+                        error_Mbb(n,i) = unc_pmc * Mbb(n,i);
+                        error_Abb(n,i) = unc_pec * Abb(n,i);
+                        break;
+                    else
+                        error_Mbb(n,i) = NaN;
+                        error_Abb(n,i) = NaN;
+                    end
+                end
+                
+                % Volcanic Sulfate Errors
+                for k=1:size(error_mass_vs_height,2)
+                    if error_mass_vs_height(k)==n
+                        error_Mvsf(n,i) = unc_pmc * Mvsf(n,i);
+                        error_Mvsa(n,i) = unc_pmc * Mvsa(n,i);
+                        error_Mvst(n,i) = unc_pmc * Mvst(n,i);
+    
+                        error_Avsf(n,i) = unc_pec * Avsf(n,i);
+                        error_Avsa(n,i) = unc_pec * Avsa(n,i);
+                        error_Avst(n,i) = unc_pec * Avst(n,i);
+                        break;
+                    else
+                        error_Mvsf(n,i) = NaN;
+                        error_Mvsa(n,i) = NaN;
+                        error_Mvst(n,i) = NaN;
+    
+                        error_Avsf(n,i) = NaN;
+                        error_Avsa(n,i) = NaN;
+                        error_Avst(n,i) = NaN;
+                    end
+                end
+            end
+        end
+    
+    
+    % only for extinction and mass?
+    % possible: Particle backscatter coefficient, Particle number
+    % concentration (r>50  and r>100), particle number
+    % concentration/surface/volume (r>250), CCN and INPO concentrations
+    
+    
+    
+    %% output
+    
+    
+    
+    if method == 1 % raman
+        % 1-step
+        POLIPHON2.aerBsc355_raman_d1 = aerBsc355_raman_d1;
+        POLIPHON2.aerBsc355_raman_nd1 = aerBsc355_raman_nd1;
+        POLIPHON2.aerBsc532_raman_d1 = aerBsc532_raman_d1;
+        POLIPHON2.aerBsc532_raman_nd1 = aerBsc532_raman_nd1;
+        POLIPHON2.aerBsc1064_raman_d1 = aerBsc1064_raman_d1;
+        POLIPHON2.aerBsc1064_raman_nd1 = aerBsc1064_raman_nd1;
+        POLIPHON2.err_aerBsc355_raman_d1 = err_aerBsc355_raman_d1;
+        POLIPHON2.err_aerBsc355_raman_nd1 = err_aerBsc355_raman_nd1;
+        POLIPHON2.err_aerBsc532_raman_d1 = err_aerBsc532_raman_d1;
+        POLIPHON2.err_aerBsc532_raman_nd1 = err_aerBsc532_raman_nd1;
+        POLIPHON2.err_aerBsc1064_raman_d1 = err_aerBsc1064_raman_d1;
+        POLIPHON2.err_aerBsc1064_raman_nd1 = err_aerBsc1064_raman_nd1;
+        
+        % 2-step
+        POLIPHON2.aerBsc355_raman_d2 = aerBsc355_raman_d2;
+        POLIPHON2.aerBsc355_raman_nd2 = aerBsc355_raman_nd2;
+        POLIPHON2.aerBsc355_raman_dc2 = aerBsc355_raman_dc2;
+        POLIPHON2.aerBsc355_raman_df2 = aerBsc355_raman_df2;
+        %POLIPHON2.aerBsc355_raman_nddf2 = aerBsc355_raman_nnddf2;
+        
+        POLIPHON2.aerBsc532_raman_d2 = aerBsc532_raman_d2;
+        POLIPHON2.aerBsc532_raman_nd2 = aerBsc532_raman_nd2;
+        POLIPHON2.aerBsc532_raman_dc2 = aerBsc532_raman_dc2;
+        POLIPHON2.aerBsc532_raman_df2 = aerBsc532_raman_df2;
+        %POLIPHON2.aerBsc532_raman_nddf2 = aerBsc532_raman_nnddf2;
+        
+        POLIPHON2.aerBsc1064_raman_d2 = aerBsc1064_raman_d2;
+        POLIPHON2.aerBsc1064_raman_nd2 = aerBsc1064_raman_nd2;
+        POLIPHON2.aerBsc1064_raman_dc2 = aerBsc1064_raman_dc2;
+        POLIPHON2.aerBsc1064_raman_df2 = aerBsc1064_raman_df2;
+        %POLIPHON2.aerBsc1064_raman_nddf2 = aerBsc1064_raman_nnddf2;
+    
+        % err
+        POLIPHON2.err_aerBsc355_raman_d2 = err_aerBsc355_raman_d2;
+        POLIPHON2.err_aerBsc355_raman_nd2 = err_aerBsc355_raman_nd2;
+        POLIPHON2.err_aerBsc355_raman_dc2 = err_aerBsc355_raman_dc2;
+        POLIPHON2.err_aerBsc355_raman_df2 = err_aerBsc355_raman_df2;
+
+        POLIPHON2.err_aerBsc532_raman_d2 = err_aerBsc532_raman_d2;
+        POLIPHON2.err_aerBsc532_raman_nd2 = err_aerBsc532_raman_nd2;
+        POLIPHON2.err_aerBsc532_raman_dc2 = err_aerBsc532_raman_dc2;
+        POLIPHON2.err_aerBsc532_raman_df2 = err_aerBsc532_raman_df2;
 
+        POLIPHON2.err_aerBsc1064_raman_d2 = err_aerBsc1064_raman_d2;
+        POLIPHON2.err_aerBsc1064_raman_nd2 = err_aerBsc1064_raman_nd2;
+        POLIPHON2.err_aerBsc1064_raman_dc2 = err_aerBsc1064_raman_dc2;
+        POLIPHON2.err_aerBsc1064_raman_df2 = err_aerBsc1064_raman_df2;
+
+        % extinction coeffs
+        POLIPHON2.ext_d_raman_355    = Ad(:, 1);        % Dust 355
+        POLIPHON2.ext_d_raman_532    = Ad(:, 2);        % Dust 532
+        POLIPHON2.ext_d_raman_1064   = Ad(:, 3);        % Dust 1064
+        
+        POLIPHON2.ext_cd_raman_355   = Acd(:, 1);       % Coarse Dust 355
+        POLIPHON2.ext_cd_raman_532   = Acd(:, 2);       % Coarse Dust 532
+        POLIPHON2.ext_cd_raman_1064  = Acd(:, 3);       % Coarse Dust 1064
+        
+        POLIPHON2.ext_fd_raman_355   = Afd(:, 1);       % Fine Dust 355
+        POLIPHON2.ext_fd_raman_532   = Afd(:, 2);       % Fine Dust 532
+        POLIPHON2.ext_fd_raman_1064  = Afd(:, 3);       % Fine Dust 1064
+        
+        POLIPHON2.ext_ndm_raman_355  = Andm1(:, 1);     % Non-Dust Marine 355
+        POLIPHON2.ext_ndm_raman_532  = Andm1(:, 2);     % Non-Dust Marine 532
+        POLIPHON2.ext_ndm_raman_1064 = Andm1(:, 3);     % Non-Dust Marine 1064
+        
+        POLIPHON2.ext_nds_raman_355  = Ands1(:, 1);     % Non-Dust Smoke 355
+        POLIPHON2.ext_nds_raman_532  = Ands1(:, 2);     % Non-Dust Smoke 532
+        POLIPHON2.ext_nds_raman_1064 = Ands1(:, 3);     % Non-Dust Smoke 1064
+        
+        POLIPHON2.ext_bb_raman_355   = Abb(:, 1);       % Biomass Burning 355
+        POLIPHON2.ext_bb_raman_532   = Abb(:, 2);       % Biomass Burning 532
+        POLIPHON2.ext_bb_raman_1064  = Abb(:, 3);       % Biomass Burning 1064
+        
+        POLIPHON2.ext_vsf_raman_355  = Avsf(:, 1);      % Volcanic Sulfate Fresh 355
+        POLIPHON2.ext_vsf_raman_532  = Avsf(:, 2);      % Volcanic Sulfate Fresh 532
+        POLIPHON2.ext_vsf_raman_1064 = Avsf(:, 3);      % Volcanic Sulfate Fresh 1064
+        
+        POLIPHON2.ext_vsa_raman_355  = Avsa(:, 1);      % Volcanic Sulfate Aged 355
+        POLIPHON2.ext_vsa_raman_532  = Avsa(:, 2);      % Volcanic Sulfate Aged 532
+        POLIPHON2.ext_vsa_raman_1064 = Avsa(:, 3);      % Volcanic Sulfate Aged 1064
+        
+        POLIPHON2.ext_vst_raman_355  = Avst(:, 1);      % Volcanic Sulfate Tropospheric 355
+        POLIPHON2.ext_vst_raman_532  = Avst(:, 2);      % Volcanic Sulfate Tropospheric 532
+        POLIPHON2.ext_vst_raman_1064 = Avst(:, 3);      % Volcanic Sulfate Tropospheric 1064
+        
+        % mass concentrations
+        POLIPHON2.m_d_raman_355   = Md(:, 1);
+        POLIPHON2.m_d_raman_532   = Md(:, 2);
+        POLIPHON2.m_d_raman_1064  = Md(:, 3);
+        
+        POLIPHON2.m_cd_raman_355  = Mcd(:, 1);
+        POLIPHON2.m_cd_raman_532  = Mcd(:, 2);
+        POLIPHON2.m_cd_raman_1064 = Mcd(:, 3);
+        
+        POLIPHON2.m_fd_raman_355  = Mfd(:, 1);
+        POLIPHON2.m_fd_raman_532  = Mfd(:, 2);
+        POLIPHON2.m_fd_raman_1064 = Mfd(:, 3);
+        
+        POLIPHON2.m_ndm_raman_355 = Mndm1(:, 1);
+        POLIPHON2.m_ndm_raman_532 = Mndm1(:, 2);
+        POLIPHON2.m_ndm_raman_1064= Mndm1(:, 3);
+        
+        POLIPHON2.m_nds_raman_355 = Mnds1(:, 1);
+        POLIPHON2.m_nds_raman_532 = Mnds1(:, 2);
+        POLIPHON2.m_nds_raman_1064= Mnds1(:, 3);
+        
+        POLIPHON2.m_bb_raman_355  = Mbb(:, 1);
+        POLIPHON2.m_bb_raman_532  = Mbb(:, 2);
+        POLIPHON2.m_bb_raman_1064 = Mbb(:, 3);
+        
+        POLIPHON2.m_vsf_raman_355 = Mvsf(:, 1);
+        POLIPHON2.m_vsf_raman_532 = Mvsf(:, 2);
+        POLIPHON2.m_vsf_raman_1064= Mvsf(:, 3);
+        
+        POLIPHON2.m_vsa_raman_355 = Mvsa(:, 1);
+        POLIPHON2.m_vsa_raman_532 = Mvsa(:, 2);
+        POLIPHON2.m_vsa_raman_1064= Mvsa(:, 3);
+        
+        POLIPHON2.m_vst_raman_355 = Mvst(:, 1);
+        POLIPHON2.m_vst_raman_532 = Mvst(:, 2);
+        POLIPHON2.m_vst_raman_1064= Mvst(:, 3);
+        
+        % number concentrations
+        POLIPHON2.n_100_d_raman_355   = n_100_d(:, 1);
+        POLIPHON2.n_100_d_raman_532   = n_100_d(:, 2);
+        POLIPHON2.n_100_d_raman_1064  = n_100_d(:, 3);
+        
+        POLIPHON2.n_250_d_raman_355   = n_250_d(:, 1);
+        POLIPHON2.n_250_d_raman_532   = n_250_d(:, 2);
+        POLIPHON2.n_250_d_raman_1064  = n_250_d(:, 3);
+        
+        POLIPHON2.n_50_c_raman_355    = n_50_c(:, 1);
+        POLIPHON2.n_50_c_raman_532    = n_50_c(:, 2);
+        POLIPHON2.n_50_c_raman_1064   = n_50_c(:, 3);
+        
+        POLIPHON2.n_250_c_raman_355   = n_250_c(:, 1);
+        POLIPHON2.n_250_c_raman_532   = n_250_c(:, 2);
+        POLIPHON2.n_250_c_raman_1064  = n_250_c(:, 3);
+        
+        POLIPHON2.n_50_m_raman_355    = n_50_m(:, 1);
+        POLIPHON2.n_50_m_raman_532    = n_50_m(:, 2);
+        POLIPHON2.n_50_m_raman_1064   = n_50_m(:, 3);
+        
+        POLIPHON2.n_250_m_raman_355   = n_250_m(:, 1);
+        POLIPHON2.n_250_m_raman_532   = n_250_m(:, 2);
+        POLIPHON2.n_250_m_raman_1064  = n_250_m(:, 3);
+        
+        POLIPHON2.n_50_bb_raman_355   = n_50_bb(:, 1);
+        POLIPHON2.n_50_bb_raman_532   = n_50_bb(:, 2);
+        POLIPHON2.n_50_bb_raman_1064  = n_50_bb(:, 3);
+        
+        POLIPHON2.n_250_bb_raman_355  = n_250_bb(:, 1);
+        POLIPHON2.n_250_bb_raman_532  = n_250_bb(:, 2);
+        POLIPHON2.n_250_bb_raman_1064 = n_250_bb(:, 3);
+        
+        POLIPHON2.n_50_vsf_raman_355  = n_50_vsf(:, 1);
+        POLIPHON2.n_50_vsf_raman_532  = n_50_vsf(:, 2);
+        POLIPHON2.n_50_vsf_raman_1064 = n_50_vsf(:, 3);
+        
+        POLIPHON2.n_250_vsf_raman_355 = n_250_vsf(:, 1);
+        POLIPHON2.n_250_vsf_raman_532 = n_250_vsf(:, 2);
+        POLIPHON2.n_250_vsf_raman_1064= n_250_vsf(:, 3);
+        
+        POLIPHON2.n_50_vsa_raman_355  = n_50_vsa(:, 1);
+        POLIPHON2.n_50_vsa_raman_532  = n_50_vsa(:, 2);
+        POLIPHON2.n_50_vsa_raman_1064 = n_50_vsa(:, 3);
+        
+        POLIPHON2.n_250_vsa_raman_355 = n_250_vsa(:, 1);
+        POLIPHON2.n_250_vsa_raman_532 = n_250_vsa(:, 2);
+        POLIPHON2.n_250_vsa_raman_1064= n_250_vsa(:, 3);
+        
+        POLIPHON2.n_50_vst_raman_355  = n_50_vst(:, 1);
+        POLIPHON2.n_50_vst_raman_532  = n_50_vst(:, 2);
+        POLIPHON2.n_50_vst_raman_1064 = n_50_vst(:, 3);
+        
+        POLIPHON2.n_250_vst_raman_355 = n_250_vst(:, 1);
+        POLIPHON2.n_250_vst_raman_532 = n_250_vst(:, 2);
+        POLIPHON2.n_250_vst_raman_1064= n_250_vst(:, 3);
+        
+        % surface area concentrations
+        POLIPHON2.sa_d_raman_355   = Sd(:, 1);
+        POLIPHON2.sa_d_raman_532   = Sd(:, 2);
+        POLIPHON2.sa_d_raman_1064  = Sd(:, 3);
+        
+        POLIPHON2.sa_c_raman_355   = Sc(:, 1);
+        POLIPHON2.sa_c_raman_532   = Sc(:, 2);
+        POLIPHON2.sa_c_raman_1064  = Sc(:, 3);
+        
+        POLIPHON2.sa_m_raman_355   = Sm(:, 1);
+        POLIPHON2.sa_m_raman_532   = Sm(:, 2);
+        POLIPHON2.sa_m_raman_1064  = Sm(:, 3);
+        
+        POLIPHON2.sa_bb_raman_355  = Sbb(:, 1);
+        POLIPHON2.sa_bb_raman_532  = Sbb(:, 2);
+        POLIPHON2.sa_bb_raman_1064 = Sbb(:, 3);
+        
+        POLIPHON2.sa_vsf_raman_355 = Svsf(:, 1);
+        POLIPHON2.sa_vsf_raman_532 = Svsf(:, 2);
+        POLIPHON2.sa_vsf_raman_1064= Svsf(:, 3);
+        
+        POLIPHON2.sa_vsa_raman_355 = Svsa(:, 1);
+        POLIPHON2.sa_vsa_raman_532 = Svsa(:, 2);
+        POLIPHON2.sa_vsa_raman_1064= Svsa(:, 3);
+        
+        POLIPHON2.sa_vst_raman_355 = Svst(:, 1);
+        POLIPHON2.sa_vst_raman_532 = Svst(:, 2);
+        POLIPHON2.sa_vst_raman_1064= Svst(:, 3);
+        
+        % err
+        % extinction err
+        POLIPHON2.err_ext_d_raman_355   = error_Ad(:, 1);
+        POLIPHON2.err_ext_d_raman_532   = error_Ad(:, 2);
+        POLIPHON2.err_ext_d_raman_1064  = error_Ad(:, 3);
+        
+        POLIPHON2.err_ext_cd_raman_355  = error_Acd(:, 1);
+        POLIPHON2.err_ext_cd_raman_532  = error_Acd(:, 2);
+        POLIPHON2.err_ext_cd_raman_1064 = error_Acd(:, 3);
+        
+        POLIPHON2.err_ext_fd_raman_355  = error_Afd(:, 1);
+        POLIPHON2.err_ext_fd_raman_532  = error_Afd(:, 2);
+        POLIPHON2.err_ext_fd_raman_1064 = error_Afd(:, 3);
+        
+        POLIPHON2.err_ext_ndm_raman_355 = error_Andm1(:, 1);
+        POLIPHON2.err_ext_ndm_raman_532 = error_Andm1(:, 2);
+        POLIPHON2.err_ext_ndm_raman_1064= error_Andm1(:, 3);
+        
+        POLIPHON2.err_ext_nds_raman_355 = error_Ands1(:, 1);
+        POLIPHON2.err_ext_nds_raman_532 = error_Ands1(:, 2);
+        POLIPHON2.err_ext_nds_raman_1064= error_Ands1(:, 3);
+        
+        POLIPHON2.err_ext_bb_raman_355  = error_Abb(:, 1);
+        POLIPHON2.err_ext_bb_raman_532  = error_Abb(:, 2);
+        POLIPHON2.err_ext_bb_raman_1064 = error_Abb(:, 3);
+        
+        POLIPHON2.err_ext_vsf_raman_355 = error_Avsf(:, 1);
+        POLIPHON2.err_ext_vsf_raman_532 = error_Avsf(:, 2);
+        POLIPHON2.err_ext_vsf_raman_1064= error_Avsf(:, 3);
+        
+        POLIPHON2.err_ext_vsa_raman_355 = error_Avsa(:, 1);
+        POLIPHON2.err_ext_vsa_raman_532 = error_Avsa(:, 2);
+        POLIPHON2.err_ext_vsa_raman_1064= error_Avsa(:, 3);
+        
+        POLIPHON2.err_ext_vst_raman_355 = error_Avst(:, 1);
+        POLIPHON2.err_ext_vst_raman_532 = error_Avst(:, 2);
+        POLIPHON2.err_ext_vst_raman_1064= error_Avst(:, 3);
+        
+        % mass err
+        POLIPHON2.err_m_d_raman_355   = error_Md(:, 1);
+        POLIPHON2.err_m_d_raman_532   = error_Md(:, 2);
+        POLIPHON2.err_m_d_raman_1064  = error_Md(:, 3);
+        
+        POLIPHON2.err_m_cd_raman_355  = error_Mcd(:, 1);
+        POLIPHON2.err_m_cd_raman_532  = error_Mcd(:, 2);
+        POLIPHON2.err_m_cd_raman_1064 = error_Mcd(:, 3);
+        
+        POLIPHON2.err_m_fd_raman_355  = error_Mfd(:, 1);
+        POLIPHON2.err_m_fd_raman_532  = error_Mfd(:, 2);
+        POLIPHON2.err_m_fd_raman_1064 = error_Mfd(:, 3);
+        
+        POLIPHON2.err_m_ndm_raman_355 = error_Mndm1(:, 1);
+        POLIPHON2.err_m_ndm_raman_532 = error_Mndm1(:, 2);
+        POLIPHON2.err_m_ndm_raman_1064= error_Mndm1(:, 3);
+        
+        POLIPHON2.err_m_nds_raman_355 = error_Mnds1(:, 1);
+        POLIPHON2.err_m_nds_raman_532 = error_Mnds1(:, 2);
+        POLIPHON2.err_m_nds_raman_1064= error_Mnds1(:, 3);
+        
+        POLIPHON2.err_m_bb_raman_355  = error_Mbb(:, 1);
+        POLIPHON2.err_m_bb_raman_532  = error_Mbb(:, 2);
+        POLIPHON2.err_m_bb_raman_1064 = error_Mbb(:, 3);
+        
+        POLIPHON2.err_m_vsf_raman_355 = error_Mvsf(:, 1);
+        POLIPHON2.err_m_vsf_raman_532 = error_Mvsf(:, 2);
+        POLIPHON2.err_m_vsf_raman_1064= error_Mvsf(:, 3);
+        
+        POLIPHON2.err_m_vsa_raman_355 = error_Mvsa(:, 1);
+        POLIPHON2.err_m_vsa_raman_532 = error_Mvsa(:, 2);
+        POLIPHON2.err_m_vsa_raman_1064= error_Mvsa(:, 3);
+        
+        POLIPHON2.err_m_vst_raman_355 = error_Mvst(:, 1);
+        POLIPHON2.err_m_vst_raman_532 = error_Mvst(:, 2);
+        POLIPHON2.err_m_vst_raman_1064= error_Mvst(:, 3);
+    
+        % CCN
+        POLIPHON2.n_ccn_raman_355    = CCN(:, 1); 
+        POLIPHON2.n_ccn_raman_532    = CCN(:, 2); 
+        POLIPHON2.n_ccn_raman_1064   = CCN(:, 3); 
+        
+        POLIPHON2.n_ccn_d_raman_355   = CCNd(:, 1); 
+        POLIPHON2.n_ccn_d_raman_532   = CCNd(:, 2); 
+        POLIPHON2.n_ccn_d_raman_1064  = CCNd(:, 3); 
+        
+        POLIPHON2.n_ccn_c_raman_355   = CCNc(:, 1); 
+        POLIPHON2.n_ccn_c_raman_532   = CCNc(:, 2); 
+        POLIPHON2.n_ccn_c_raman_1064  = CCNc(:, 3); 
+        
+        POLIPHON2.n_ccn_m_raman_355   = CCNm(:, 1); 
+        POLIPHON2.n_ccn_m_raman_532   = CCNm(:, 2); 
+        POLIPHON2.n_ccn_m_raman_1064  = CCNm(:, 3); 
+        
+        POLIPHON2.n_ccn_bb_raman_355  = CCNbb(:, 1); 
+        POLIPHON2.n_ccn_bb_raman_532  = CCNbb(:, 2); 
+        POLIPHON2.n_ccn_bb_raman_1064 = CCNbb(:, 3); 
+        
+        POLIPHON2.n_ccn_vsf_raman_355 = CCNvsf(:, 1);
+        POLIPHON2.n_ccn_vsf_raman_532 = CCNvsf(:, 2);
+        POLIPHON2.n_ccn_vsf_raman_1064= CCNvsf(:, 3);
+        
+        POLIPHON2.n_ccn_vst_raman_355 = CCNvst(:, 1); 
+        POLIPHON2.n_ccn_vst_raman_532 = CCNvst(:, 2); 
+        POLIPHON2.n_ccn_vst_raman_1064= CCNvst(:, 3); 
+        
+        POLIPHON2.n_ccn_vsa_raman_355 = CCNvsa(:, 1);
+        POLIPHON2.n_ccn_vsa_raman_532 = CCNvsa(:, 2);
+        POLIPHON2.n_ccn_vsa_raman_1064= CCNvsa(:, 3);
+        
+        % % INP calculations after:
+        % d10 = DeMott 2010
+        % d15 = DeMott 2015
+        % n12 = Niemand 2012
+        % s15 = Steinke 2015
+        
+        % dust INP raman
+        POLIPHON2.n_inp_d_d10_amb_raman_355 = INPd_d10_amb(:, 1); 
+        POLIPHON2.n_inp_d_d10_amb_raman_532 = INPd_d10_amb(:, 2); 
+        POLIPHON2.n_inp_d_d10_amb_raman_1064= INPd_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_d15_amb_raman_355 = INPd_d15_amb(:, 1); 
+        POLIPHON2.n_inp_d_d15_amb_raman_532 = INPd_d15_amb(:, 2); 
+        POLIPHON2.n_inp_d_d15_amb_raman_1064= INPd_d15_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_n12_amb_raman_355 = INPd_n12_amb(:, 1); 
+        POLIPHON2.n_inp_d_n12_amb_raman_532 = INPd_n12_amb(:, 2); 
+        POLIPHON2.n_inp_d_n12_amb_raman_1064= INPd_n12_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_s15_amb_raman_355 = INPd_s15_amb(:, 1); 
+        POLIPHON2.n_inp_d_s15_amb_raman_532 = INPd_s15_amb(:, 2); 
+        POLIPHON2.n_inp_d_s15_amb_raman_1064= INPd_s15_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_d10_raman_355     = INPd_d10(:, 1); 
+        POLIPHON2.n_inp_d_d10_raman_532     = INPd_d10(:, 2); 
+        POLIPHON2.n_inp_d_d10_raman_1064    = INPd_d10(:, 3); 
+        
+        POLIPHON2.n_inp_d_d15_raman_355     = INPd_d15(:, 1); 
+        POLIPHON2.n_inp_d_d15_raman_532     = INPd_d15(:, 2); 
+        POLIPHON2.n_inp_d_d15_raman_1064    = INPd_d15(:, 3); 
+        
+        POLIPHON2.n_inp_d_n12_raman_355     = INPd_n12(:, 1); 
+        POLIPHON2.n_inp_d_n12_raman_532     = INPd_n12(:, 2); 
+        POLIPHON2.n_inp_d_n12_raman_1064    = INPd_n12(:, 3); 
+        
+        POLIPHON2.n_inp_d_s15_raman_355     = INPd_s15(:, 1); 
+        POLIPHON2.n_inp_d_s15_raman_532     = INPd_s15(:, 2); 
+        POLIPHON2.n_inp_d_s15_raman_1064    = INPd_s15(:, 3); 
+        
+        POLIPHON2.n_inp_c_d10_amb_raman_355 = INPc_d10_amb(:, 1); 
+        POLIPHON2.n_inp_c_d10_amb_raman_532 = INPc_d10_amb(:, 2); 
+        POLIPHON2.n_inp_c_d10_amb_raman_1064= INPc_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_c_d10_raman_355     = INPc_d10(:, 1); 
+        POLIPHON2.n_inp_c_d10_raman_532     = INPc_d10(:, 2); 
+        POLIPHON2.n_inp_c_d10_raman_1064    = INPc_d10(:, 3); 
+        
+        POLIPHON2.n_inp_m_d10_amb_raman_355 = INPm_d10_amb(:, 1); 
+        POLIPHON2.n_inp_m_d10_amb_raman_532 = INPm_d10_amb(:, 2); 
+        POLIPHON2.n_inp_m_d10_amb_raman_1064= INPm_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_m_d10_raman_355     = INPm_d10(:, 1); 
+        POLIPHON2.n_inp_m_d10_raman_532     = INPm_d10(:, 2); 
+        POLIPHON2.n_inp_m_d10_raman_1064    = INPm_d10(:, 3); 
+        
+        POLIPHON2.n_inp_bb_d10_amb_raman_355 = INPbb_d10_amb(:, 1); 
+        POLIPHON2.n_inp_bb_d10_amb_raman_532 = INPbb_d10_amb(:, 2); 
+        POLIPHON2.n_inp_bb_d10_amb_raman_1064= INPbb_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_bb_d10_raman_355     = INPbb_d10(:, 1); 
+        POLIPHON2.n_inp_bb_d10_raman_532     = INPbb_d10(:, 2); 
+        POLIPHON2.n_inp_bb_d10_raman_1064    = INPbb_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vsf_d10_amb_raman_355 = INPvsf_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vsf_d10_amb_raman_532 = INPvsf_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vsf_d10_amb_raman_1064= INPvsf_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vsf_d10_raman_355     = INPvsf_d10(:, 1); 
+        POLIPHON2.n_inp_vsf_d10_raman_532     = INPvsf_d10(:, 2); 
+        POLIPHON2.n_inp_vsf_d10_raman_1064    = INPvsf_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vsa_d10_amb_raman_355 = INPvsa_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vsa_d10_amb_raman_532 = INPvsa_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vsa_d10_amb_raman_1064= INPvsa_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vsa_d10_raman_355     = INPvsa_d10(:, 1); 
+        POLIPHON2.n_inp_vsa_d10_raman_532     = INPvsa_d10(:, 2); 
+        POLIPHON2.n_inp_vsa_d10_raman_1064    = INPvsa_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vst_d10_amb_raman_355 = INPvst_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vst_d10_amb_raman_532 = INPvst_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vst_d10_amb_raman_1064= INPvst_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vst_d10_raman_355     = INPvst_d10(:, 1); 
+        POLIPHON2.n_inp_vst_d10_raman_532     = INPvst_d10(:, 2); 
+        POLIPHON2.n_inp_vst_d10_raman_1064    = INPvst_d10(:, 3);
+    
+    elseif method == 2 % klett
+        % 1-step
+        POLIPHON2.aerBsc355_klett_d1 = aerBsc355_klett_d1;
+        POLIPHON2.aerBsc355_klett_nd1 = aerBsc355_klett_nd1;
+        POLIPHON2.aerBsc532_klett_d1 = aerBsc532_klett_d1;
+        POLIPHON2.aerBsc532_klett_nd1 = aerBsc532_klett_nd1;
+        POLIPHON2.aerBsc1064_klett_d1 = aerBsc1064_klett_d1;
+        POLIPHON2.aerBsc1064_klett_nd1 = aerBsc1064_klett_nd1;
+        POLIPHON2.err_aerBsc355_klett_d1 = err_aerBsc355_klett_d1;
+        POLIPHON2.err_aerBsc355_klett_nd1 = err_aerBsc355_klett_nd1;
+        POLIPHON2.err_aerBsc532_klett_d1 = err_aerBsc532_klett_d1;
+        POLIPHON2.err_aerBsc532_klett_nd1 = err_aerBsc532_klett_nd1;
+        POLIPHON2.err_aerBsc1064_klett_d1 = err_aerBsc1064_klett_d1;
+        POLIPHON2.err_aerBsc1064_klett_nd1 = err_aerBsc1064_klett_nd1;
+    
+        % 2 step
+
+        POLIPHON2.aerBsc355_klett_d2 = aerBsc355_klett_d2;
+        POLIPHON2.aerBsc355_klett_nd2 = aerBsc355_klett_nd2;
+        POLIPHON2.aerBsc355_klett_dc2 = aerBsc355_klett_dc2;
+        POLIPHON2.aerBsc355_klett_df2 = aerBsc355_klett_df2;
+        %POLIPHON2.aerBsc355_klett_nddf2 = aerBsc355_klett_nnddf2;
+        
+        POLIPHON2.aerBsc532_klett_d2 = aerBsc532_klett_d2;
+        POLIPHON2.aerBsc532_klett_nd2 = aerBsc532_klett_nd2;
+        POLIPHON2.aerBsc532_klett_dc2 = aerBsc532_klett_dc2;
+        POLIPHON2.aerBsc532_klett_df2 = aerBsc532_klett_df2;
+        %POLIPHON2.aerBsc532_klett_nddf2 = aerBsc532_klett_nnddf2;
+        
+        POLIPHON2.aerBsc1064_klett_d2 = aerBsc1064_klett_d2;
+        POLIPHON2.aerBsc1064_klett_nd2 = aerBsc1064_klett_nd2;
+        POLIPHON2.aerBsc1064_klett_dc2 = aerBsc1064_klett_dc2;
+        POLIPHON2.aerBsc1064_klett_df2 = aerBsc1064_klett_df2;
+        %POLIPHON2.aerBsc1064_klett_nddf2 = aerBsc1064_klett_nnddf2;
+    
+        POLIPHON2.err_aerBsc355_klett_d2 = err_aerBsc355_klett_d2;
+        POLIPHON2.err_aerBsc355_klett_nd2 = err_aerBsc355_klett_nd2;
+        POLIPHON2.err_aerBsc355_klett_dc2 = err_aerBsc355_klett_dc2;
+        POLIPHON2.err_aerBsc355_klett_df2 = err_aerBsc355_klett_df2;
+    
+        POLIPHON2.err_aerBsc532_klett_d2 = err_aerBsc532_klett_d2;
+        POLIPHON2.err_aerBsc532_klett_nd2 = err_aerBsc532_klett_nd2;
+        POLIPHON2.err_aerBsc532_klett_dc2 = err_aerBsc532_klett_dc2;
+        POLIPHON2.err_aerBsc532_klett_df2 = err_aerBsc532_klett_df2;
+    
+        POLIPHON2.err_aerBsc1064_klett_d2 = err_aerBsc1064_klett_d2;
+        POLIPHON2.err_aerBsc1064_klett_nd2 = err_aerBsc1064_klett_nd2;
+        POLIPHON2.err_aerBsc1064_klett_dc2 = err_aerBsc1064_klett_dc2;
+        POLIPHON2.err_aerBsc1064_klett_df2 = err_aerBsc1064_klett_df2;
+    
+        % err
+        POLIPHON2.err_aerBsc355_klett_d2 = err_aerBsc355_klett_d2;
+        POLIPHON2.err_aerBsc355_klett_nd2 = err_aerBsc355_klett_nd2;
+        POLIPHON2.err_aerBsc355_klett_dc2 = err_aerBsc355_klett_dc2;
+        POLIPHON2.err_aerBsc355_klett_df2 = err_aerBsc355_klett_df2;
+
+        POLIPHON2.err_aerBsc532_klett_d2 = err_aerBsc532_klett_d2;
+        POLIPHON2.err_aerBsc532_klett_nd2 = err_aerBsc532_klett_nd2;
+        POLIPHON2.err_aerBsc532_klett_dc2 = err_aerBsc532_klett_dc2;
+        POLIPHON2.err_aerBsc532_klett_df2 = err_aerBsc532_klett_df2;
+
+        POLIPHON2.err_aerBsc1064_klett_d2 = err_aerBsc1064_klett_d2;
+        POLIPHON2.err_aerBsc1064_klett_nd2 = err_aerBsc1064_klett_nd2;
+        POLIPHON2.err_aerBsc1064_klett_dc2 = err_aerBsc1064_klett_dc2;
+        POLIPHON2.err_aerBsc1064_klett_df2 = err_aerBsc1064_klett_df2;
+    
+        % extinction coeffs
+        POLIPHON2.ext_d_klett_355    = Ad(:, 1);        % Dust 355
+        POLIPHON2.ext_d_klett_532    = Ad(:, 2);        % Dust 532
+        POLIPHON2.ext_d_klett_1064   = Ad(:, 3);        % Dust 1064
+        
+        POLIPHON2.ext_cd_klett_355   = Acd(:, 1);       % Coarse Dust 355
+        POLIPHON2.ext_cd_klett_532   = Acd(:, 2);       % Coarse Dust 532
+        POLIPHON2.ext_cd_klett_1064  = Acd(:, 3);       % Coarse Dust 1064
+        
+        POLIPHON2.ext_fd_klett_355   = Afd(:, 1);       % Fine Dust 355
+        POLIPHON2.ext_fd_klett_532   = Afd(:, 2);       % Fine Dust 532
+        POLIPHON2.ext_fd_klett_1064  = Afd(:, 3);       % Fine Dust 1064
+        
+        POLIPHON2.ext_ndm_klett_355  = Andm1(:, 1);     % Non-Dust Marine 355
+        POLIPHON2.ext_ndm_klett_532  = Andm1(:, 2);     % Non-Dust Marine 532
+        POLIPHON2.ext_ndm_klett_1064 = Andm1(:, 3);     % Non-Dust Marine 1064
+        
+        POLIPHON2.ext_nds_klett_355  = Ands1(:, 1);     % Non-Dust Smoke 355
+        POLIPHON2.ext_nds_klett_532  = Ands1(:, 2);     % Non-Dust Smoke 532
+        POLIPHON2.ext_nds_klett_1064 = Ands1(:, 3);     % Non-Dust Smoke 1064
+        
+        POLIPHON2.ext_bb_klett_355   = Abb(:, 1);       % Biomass Burning 355
+        POLIPHON2.ext_bb_klett_532   = Abb(:, 2);       % Biomass Burning 532
+        POLIPHON2.ext_bb_klett_1064  = Abb(:, 3);       % Biomass Burning 1064
+        
+        POLIPHON2.ext_vsf_klett_355  = Avsf(:, 1);      % Volcanic Sulfate Fresh 355
+        POLIPHON2.ext_vsf_klett_532  = Avsf(:, 2);      % Volcanic Sulfate Fresh 532
+        POLIPHON2.ext_vsf_klett_1064 = Avsf(:, 3);      % Volcanic Sulfate Fresh 1064
+        
+        POLIPHON2.ext_vsa_klett_355  = Avsa(:, 1);      % Volcanic Sulfate Aged 355
+        POLIPHON2.ext_vsa_klett_532  = Avsa(:, 2);      % Volcanic Sulfate Aged 532
+        POLIPHON2.ext_vsa_klett_1064 = Avsa(:, 3);      % Volcanic Sulfate Aged 1064
+        
+        POLIPHON2.ext_vst_klett_355  = Avst(:, 1);      % Volcanic Sulfate Tropospheric 355
+        POLIPHON2.ext_vst_klett_532  = Avst(:, 2);      % Volcanic Sulfate Tropospheric 532
+        POLIPHON2.ext_vst_klett_1064 = Avst(:, 3);      % Volcanic Sulfate Tropospheric 1064
+        
+        % mass concentrations
+        POLIPHON2.m_d_klett_355   = Md(:, 1);
+        POLIPHON2.m_d_klett_532   = Md(:, 2);
+        POLIPHON2.m_d_klett_1064  = Md(:, 3);
+        
+        POLIPHON2.m_cd_klett_355  = Mcd(:, 1);
+        POLIPHON2.m_cd_klett_532  = Mcd(:, 2);
+        POLIPHON2.m_cd_klett_1064 = Mcd(:, 3);
+        
+        POLIPHON2.m_fd_klett_355  = Mfd(:, 1);
+        POLIPHON2.m_fd_klett_532  = Mfd(:, 2);
+        POLIPHON2.m_fd_klett_1064 = Mfd(:, 3);
+        
+        POLIPHON2.m_ndm_klett_355 = Mndm1(:, 1);
+        POLIPHON2.m_ndm_klett_532 = Mndm1(:, 2);
+        POLIPHON2.m_ndm_klett_1064= Mndm1(:, 3);
+        
+        POLIPHON2.m_nds_klett_355 = Mnds1(:, 1);
+        POLIPHON2.m_nds_klett_532 = Mnds1(:, 2);
+        POLIPHON2.m_nds_klett_1064= Mnds1(:, 3);
+        
+        POLIPHON2.m_bb_klett_355  = Mbb(:, 1);
+        POLIPHON2.m_bb_klett_532  = Mbb(:, 2);
+        POLIPHON2.m_bb_klett_1064 = Mbb(:, 3);
+        
+        POLIPHON2.m_vsf_klett_355 = Mvsf(:, 1);
+        POLIPHON2.m_vsf_klett_532 = Mvsf(:, 2);
+        POLIPHON2.m_vsf_klett_1064= Mvsf(:, 3);
+        
+        POLIPHON2.m_vsa_klett_355 = Mvsa(:, 1);
+        POLIPHON2.m_vsa_klett_532 = Mvsa(:, 2);
+        POLIPHON2.m_vsa_klett_1064= Mvsa(:, 3);
+        
+        POLIPHON2.m_vst_klett_355 = Mvst(:, 1);
+        POLIPHON2.m_vst_klett_532 = Mvst(:, 2);
+        POLIPHON2.m_vst_klett_1064= Mvst(:, 3);
+        
+        % number concentrations
+        POLIPHON2.n_100_d_klett_355   = n_100_d(:, 1);
+        POLIPHON2.n_100_d_klett_532   = n_100_d(:, 2);
+        POLIPHON2.n_100_d_klett_1064  = n_100_d(:, 3);
+        
+        POLIPHON2.n_250_d_klett_355   = n_250_d(:, 1);
+        POLIPHON2.n_250_d_klett_532   = n_250_d(:, 2);
+        POLIPHON2.n_250_d_klett_1064  = n_250_d(:, 3);
+        
+        POLIPHON2.n_50_c_klett_355    = n_50_c(:, 1);
+        POLIPHON2.n_50_c_klett_532    = n_50_c(:, 2);
+        POLIPHON2.n_50_c_klett_1064   = n_50_c(:, 3);
+        
+        POLIPHON2.n_250_c_klett_355   = n_250_c(:, 1);
+        POLIPHON2.n_250_c_klett_532   = n_250_c(:, 2);
+        POLIPHON2.n_250_c_klett_1064  = n_250_c(:, 3);
+        
+        POLIPHON2.n_50_m_klett_355    = n_50_m(:, 1);
+        POLIPHON2.n_50_m_klett_532    = n_50_m(:, 2);
+        POLIPHON2.n_50_m_klett_1064   = n_50_m(:, 3);
+        
+        POLIPHON2.n_250_m_klett_355   = n_250_m(:, 1);
+        POLIPHON2.n_250_m_klett_532   = n_250_m(:, 2);
+        POLIPHON2.n_250_m_klett_1064  = n_250_m(:, 3);
+        
+        POLIPHON2.n_50_bb_klett_355   = n_50_bb(:, 1);
+        POLIPHON2.n_50_bb_klett_532   = n_50_bb(:, 2);
+        POLIPHON2.n_50_bb_klett_1064  = n_50_bb(:, 3);
+        
+        POLIPHON2.n_250_bb_klett_355  = n_250_bb(:, 1);
+        POLIPHON2.n_250_bb_klett_532  = n_250_bb(:, 2);
+        POLIPHON2.n_250_bb_klett_1064 = n_250_bb(:, 3);
+        
+        POLIPHON2.n_50_vsf_klett_355  = n_50_vsf(:, 1);
+        POLIPHON2.n_50_vsf_klett_532  = n_50_vsf(:, 2);
+        POLIPHON2.n_50_vsf_klett_1064 = n_50_vsf(:, 3);
+        
+        POLIPHON2.n_250_vsf_klett_355 = n_250_vsf(:, 1);
+        POLIPHON2.n_250_vsf_klett_532 = n_250_vsf(:, 2);
+        POLIPHON2.n_250_vsf_klett_1064= n_250_vsf(:, 3);
+        
+        POLIPHON2.n_50_vsa_klett_355  = n_50_vsa(:, 1);
+        POLIPHON2.n_50_vsa_klett_532  = n_50_vsa(:, 2);
+        POLIPHON2.n_50_vsa_klett_1064 = n_50_vsa(:, 3);
+        
+        POLIPHON2.n_250_vsa_klett_355 = n_250_vsa(:, 1);
+        POLIPHON2.n_250_vsa_klett_532 = n_250_vsa(:, 2);
+        POLIPHON2.n_250_vsa_klett_1064= n_250_vsa(:, 3);
+        
+        POLIPHON2.n_50_vst_klett_355  = n_50_vst(:, 1);
+        POLIPHON2.n_50_vst_klett_532  = n_50_vst(:, 2);
+        POLIPHON2.n_50_vst_klett_1064 = n_50_vst(:, 3);
+        
+        POLIPHON2.n_250_vst_klett_355 = n_250_vst(:, 1);
+        POLIPHON2.n_250_vst_klett_532 = n_250_vst(:, 2);
+        POLIPHON2.n_250_vst_klett_1064= n_250_vst(:, 3);
+        
+        % surface area concentrations
+        POLIPHON2.sa_d_klett_355   = Sd(:, 1);
+        POLIPHON2.sa_d_klett_532   = Sd(:, 2);
+        POLIPHON2.sa_d_klett_1064  = Sd(:, 3);
+        
+        POLIPHON2.sa_c_klett_355   = Sc(:, 1);
+        POLIPHON2.sa_c_klett_532   = Sc(:, 2);
+        POLIPHON2.sa_c_klett_1064  = Sc(:, 3);
+        
+        POLIPHON2.sa_m_klett_355   = Sm(:, 1);
+        POLIPHON2.sa_m_klett_532   = Sm(:, 2);
+        POLIPHON2.sa_m_klett_1064  = Sm(:, 3);
+        
+        POLIPHON2.sa_bb_klett_355  = Sbb(:, 1);
+        POLIPHON2.sa_bb_klett_532  = Sbb(:, 2);
+        POLIPHON2.sa_bb_klett_1064 = Sbb(:, 3);
+        
+        POLIPHON2.sa_vsf_klett_355 = Svsf(:, 1);
+        POLIPHON2.sa_vsf_klett_532 = Svsf(:, 2);
+        POLIPHON2.sa_vsf_klett_1064= Svsf(:, 3);
+        
+        POLIPHON2.sa_vsa_klett_355 = Svsa(:, 1);
+        POLIPHON2.sa_vsa_klett_532 = Svsa(:, 2);
+        POLIPHON2.sa_vsa_klett_1064= Svsa(:, 3);
+        
+        POLIPHON2.sa_vst_klett_355 = Svst(:, 1);
+        POLIPHON2.sa_vst_klett_532 = Svst(:, 2);
+        POLIPHON2.sa_vst_klett_1064= Svst(:, 3);
+        
+        % err
+        % extinction err
+        POLIPHON2.err_ext_d_klett_355   = error_Ad(:, 1);
+        POLIPHON2.err_ext_d_klett_532   = error_Ad(:, 2);
+        POLIPHON2.err_ext_d_klett_1064  = error_Ad(:, 3);
+        
+        POLIPHON2.err_ext_cd_klett_355  = error_Acd(:, 1);
+        POLIPHON2.err_ext_cd_klett_532  = error_Acd(:, 2);
+        POLIPHON2.err_ext_cd_klett_1064 = error_Acd(:, 3);
+        
+        POLIPHON2.err_ext_fd_klett_355  = error_Afd(:, 1);
+        POLIPHON2.err_ext_fd_klett_532  = error_Afd(:, 2);
+        POLIPHON2.err_ext_fd_klett_1064 = error_Afd(:, 3);
+        
+        POLIPHON2.err_ext_ndm_klett_355 = error_Andm1(:, 1);
+        POLIPHON2.err_ext_ndm_klett_532 = error_Andm1(:, 2);
+        POLIPHON2.err_ext_ndm_klett_1064= error_Andm1(:, 3);
+        
+        POLIPHON2.err_ext_nds_klett_355 = error_Ands1(:, 1);
+        POLIPHON2.err_ext_nds_klett_532 = error_Ands1(:, 2);
+        POLIPHON2.err_ext_nds_klett_1064= error_Ands1(:, 3);
+        
+        POLIPHON2.err_ext_bb_klett_355  = error_Abb(:, 1);
+        POLIPHON2.err_ext_bb_klett_532  = error_Abb(:, 2);
+        POLIPHON2.err_ext_bb_klett_1064 = error_Abb(:, 3);
+        
+        POLIPHON2.err_ext_vsf_klett_355 = error_Avsf(:, 1);
+        POLIPHON2.err_ext_vsf_klett_532 = error_Avsf(:, 2);
+        POLIPHON2.err_ext_vsf_klett_1064= error_Avsf(:, 3);
+        
+        POLIPHON2.err_ext_vsa_klett_355 = error_Avsa(:, 1);
+        POLIPHON2.err_ext_vsa_klett_532 = error_Avsa(:, 2);
+        POLIPHON2.err_ext_vsa_klett_1064= error_Avsa(:, 3);
+        
+        POLIPHON2.err_ext_vst_klett_355 = error_Avst(:, 1);
+        POLIPHON2.err_ext_vst_klett_532 = error_Avst(:, 2);
+        POLIPHON2.err_ext_vst_klett_1064= error_Avst(:, 3);
+        
+        % mass err
+        POLIPHON2.err_m_d_klett_355   = error_Md(:, 1);
+        POLIPHON2.err_m_d_klett_532   = error_Md(:, 2);
+        POLIPHON2.err_m_d_klett_1064  = error_Md(:, 3);
+        
+        POLIPHON2.err_m_cd_klett_355  = error_Mcd(:, 1);
+        POLIPHON2.err_m_cd_klett_532  = error_Mcd(:, 2);
+        POLIPHON2.err_m_cd_klett_1064 = error_Mcd(:, 3);
+        
+        POLIPHON2.err_m_fd_klett_355  = error_Mfd(:, 1);
+        POLIPHON2.err_m_fd_klett_532  = error_Mfd(:, 2);
+        POLIPHON2.err_m_fd_klett_1064 = error_Mfd(:, 3);
+        
+        POLIPHON2.err_m_ndm_klett_355 = error_Mndm1(:, 1);
+        POLIPHON2.err_m_ndm_klett_532 = error_Mndm1(:, 2);
+        POLIPHON2.err_m_ndm_klett_1064= error_Mndm1(:, 3);
+        
+        POLIPHON2.err_m_nds_klett_355 = error_Mnds1(:, 1);
+        POLIPHON2.err_m_nds_klett_532 = error_Mnds1(:, 2);
+        POLIPHON2.err_m_nds_klett_1064= error_Mnds1(:, 3);
+        
+        POLIPHON2.err_m_bb_klett_355  = error_Mbb(:, 1);
+        POLIPHON2.err_m_bb_klett_532  = error_Mbb(:, 2);
+        POLIPHON2.err_m_bb_klett_1064 = error_Mbb(:, 3);
+        
+        POLIPHON2.err_m_vsf_klett_355 = error_Mvsf(:, 1);
+        POLIPHON2.err_m_vsf_klett_532 = error_Mvsf(:, 2);
+        POLIPHON2.err_m_vsf_klett_1064= error_Mvsf(:, 3);
+        
+        POLIPHON2.err_m_vsa_klett_355 = error_Mvsa(:, 1);
+        POLIPHON2.err_m_vsa_klett_532 = error_Mvsa(:, 2);
+        POLIPHON2.err_m_vsa_klett_1064= error_Mvsa(:, 3);
+        
+        POLIPHON2.err_m_vst_klett_355 = error_Mvst(:, 1);
+        POLIPHON2.err_m_vst_klett_532 = error_Mvst(:, 2);
+        POLIPHON2.err_m_vst_klett_1064= error_Mvst(:, 3);
+    
+        % CCN
+        POLIPHON2.n_ccn_klett_355    = CCN(:, 1); 
+        POLIPHON2.n_ccn_klett_532    = CCN(:, 2); 
+        POLIPHON2.n_ccn_klett_1064   = CCN(:, 3); 
+        
+        POLIPHON2.n_ccn_d_klett_355   = CCNd(:, 1); 
+        POLIPHON2.n_ccn_d_klett_532   = CCNd(:, 2); 
+        POLIPHON2.n_ccn_d_klett_1064  = CCNd(:, 3); 
+        
+        POLIPHON2.n_ccn_c_klett_355   = CCNc(:, 1); 
+        POLIPHON2.n_ccn_c_klett_532   = CCNc(:, 2); 
+        POLIPHON2.n_ccn_c_klett_1064  = CCNc(:, 3); 
+        
+        POLIPHON2.n_ccn_m_klett_355   = CCNm(:, 1); 
+        POLIPHON2.n_ccn_m_klett_532   = CCNm(:, 2); 
+        POLIPHON2.n_ccn_m_klett_1064  = CCNm(:, 3); 
+        
+        POLIPHON2.n_ccn_bb_klett_355  = CCNbb(:, 1); 
+        POLIPHON2.n_ccn_bb_klett_532  = CCNbb(:, 2); 
+        POLIPHON2.n_ccn_bb_klett_1064 = CCNbb(:, 3); 
+        
+        POLIPHON2.n_ccn_vsf_klett_355 = CCNvsf(:, 1);
+        POLIPHON2.n_ccn_vsf_klett_532 = CCNvsf(:, 2);
+        POLIPHON2.n_ccn_vsf_klett_1064= CCNvsf(:, 3);
+        
+        POLIPHON2.n_ccn_vst_klett_355 = CCNvst(:, 1); 
+        POLIPHON2.n_ccn_vst_klett_532 = CCNvst(:, 2); 
+        POLIPHON2.n_ccn_vst_klett_1064= CCNvst(:, 3); 
+        
+        POLIPHON2.n_ccn_vsa_klett_355 = CCNvsa(:, 1);
+        POLIPHON2.n_ccn_vsa_klett_532 = CCNvsa(:, 2);
+        POLIPHON2.n_ccn_vsa_klett_1064= CCNvsa(:, 3);
+        
+        % % INP calculations after:
+        % d10 = DeMott 2010
+        % d15 = DeMott 2015
+        % n12 = Niemand 2012
+        % s15 = Steinke 2015
+        
+        % dust INP klett
+        POLIPHON2.n_inp_d_d10_amb_klett_355 = INPd_d10_amb(:, 1); 
+        POLIPHON2.n_inp_d_d10_amb_klett_532 = INPd_d10_amb(:, 2); 
+        POLIPHON2.n_inp_d_d10_amb_klett_1064= INPd_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_d15_amb_klett_355 = INPd_d15_amb(:, 1); 
+        POLIPHON2.n_inp_d_d15_amb_klett_532 = INPd_d15_amb(:, 2); 
+        POLIPHON2.n_inp_d_d15_amb_klett_1064= INPd_d15_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_n12_amb_klett_355 = INPd_n12_amb(:, 1); 
+        POLIPHON2.n_inp_d_n12_amb_klett_532 = INPd_n12_amb(:, 2); 
+        POLIPHON2.n_inp_d_n12_amb_klett_1064= INPd_n12_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_s15_amb_klett_355 = INPd_s15_amb(:, 1); 
+        POLIPHON2.n_inp_d_s15_amb_klett_532 = INPd_s15_amb(:, 2); 
+        POLIPHON2.n_inp_d_s15_amb_klett_1064= INPd_s15_amb(:, 3); 
+        
+        POLIPHON2.n_inp_d_d10_klett_355     = INPd_d10(:, 1); 
+        POLIPHON2.n_inp_d_d10_klett_532     = INPd_d10(:, 2); 
+        POLIPHON2.n_inp_d_d10_klett_1064    = INPd_d10(:, 3); 
+        
+        POLIPHON2.n_inp_d_d15_klett_355     = INPd_d15(:, 1); 
+        POLIPHON2.n_inp_d_d15_klett_532     = INPd_d15(:, 2); 
+        POLIPHON2.n_inp_d_d15_klett_1064    = INPd_d15(:, 3); 
+        
+        POLIPHON2.n_inp_d_n12_klett_355     = INPd_n12(:, 1); 
+        POLIPHON2.n_inp_d_n12_klett_532     = INPd_n12(:, 2); 
+        POLIPHON2.n_inp_d_n12_klett_1064    = INPd_n12(:, 3); 
+        
+        POLIPHON2.n_inp_d_s15_klett_355     = INPd_s15(:, 1); 
+        POLIPHON2.n_inp_d_s15_klett_532     = INPd_s15(:, 2); 
+        POLIPHON2.n_inp_d_s15_klett_1064    = INPd_s15(:, 3); 
+        
+        POLIPHON2.n_inp_c_d10_amb_klett_355 = INPc_d10_amb(:, 1); 
+        POLIPHON2.n_inp_c_d10_amb_klett_532 = INPc_d10_amb(:, 2); 
+        POLIPHON2.n_inp_c_d10_amb_klett_1064= INPc_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_c_d10_klett_355     = INPc_d10(:, 1); 
+        POLIPHON2.n_inp_c_d10_klett_532     = INPc_d10(:, 2); 
+        POLIPHON2.n_inp_c_d10_klett_1064    = INPc_d10(:, 3); 
+        
+        POLIPHON2.n_inp_m_d10_amb_klett_355 = INPm_d10_amb(:, 1); 
+        POLIPHON2.n_inp_m_d10_amb_klett_532 = INPm_d10_amb(:, 2); 
+        POLIPHON2.n_inp_m_d10_amb_klett_1064= INPm_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_m_d10_klett_355     = INPm_d10(:, 1); 
+        POLIPHON2.n_inp_m_d10_klett_532     = INPm_d10(:, 2); 
+        POLIPHON2.n_inp_m_d10_klett_1064    = INPm_d10(:, 3); 
+        
+        POLIPHON2.n_inp_bb_d10_amb_klett_355 = INPbb_d10_amb(:, 1); 
+        POLIPHON2.n_inp_bb_d10_amb_klett_532 = INPbb_d10_amb(:, 2); 
+        POLIPHON2.n_inp_bb_d10_amb_klett_1064= INPbb_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_bb_d10_klett_355     = INPbb_d10(:, 1); 
+        POLIPHON2.n_inp_bb_d10_klett_532     = INPbb_d10(:, 2); 
+        POLIPHON2.n_inp_bb_d10_klett_1064    = INPbb_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vsf_d10_amb_klett_355 = INPvsf_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vsf_d10_amb_klett_532 = INPvsf_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vsf_d10_amb_klett_1064= INPvsf_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vsf_d10_klett_355     = INPvsf_d10(:, 1); 
+        POLIPHON2.n_inp_vsf_d10_klett_532     = INPvsf_d10(:, 2); 
+        POLIPHON2.n_inp_vsf_d10_klett_1064    = INPvsf_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vsa_d10_amb_klett_355 = INPvsa_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vsa_d10_amb_klett_532 = INPvsa_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vsa_d10_amb_klett_1064= INPvsa_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vsa_d10_klett_355     = INPvsa_d10(:, 1); 
+        POLIPHON2.n_inp_vsa_d10_klett_532     = INPvsa_d10(:, 2); 
+        POLIPHON2.n_inp_vsa_d10_klett_1064    = INPvsa_d10(:, 3); 
+        
+        POLIPHON2.n_inp_vst_d10_amb_klett_355 = INPvst_d10_amb(:, 1); 
+        POLIPHON2.n_inp_vst_d10_amb_klett_532 = INPvst_d10_amb(:, 2); 
+        POLIPHON2.n_inp_vst_d10_amb_klett_1064= INPvst_d10_amb(:, 3); 
+        
+        POLIPHON2.n_inp_vst_d10_klett_355     = INPvst_d10(:, 1); 
+        POLIPHON2.n_inp_vst_d10_klett_532     = INPvst_d10(:, 2); 
+        POLIPHON2.n_inp_vst_d10_klett_1064    = INPvst_d10(:, 3);
+    end
+end
+% TODO:
 
+% some plots for verification
+% group variables
+   % INP
+   % CCN
+   % for each aerosol type (ext, mass, sa, .. for raman and klett)
+   % 2-step output