I build systems that take AI research into production. My work sits at the intersection of two tracks I have followed in parallel since early on:
- Applied AI research: computer vision and GenAI, peer reviewed in IEEE and Springer (stroke detection from wearable signals at 99% accuracy, medical image analysis, license plate recognition)
- Scalable backend engineering: microservices and distributed systems in production, currently at Zup (Itaú Group)
I care less about a headline accuracy number and more about what it takes to make a model survive real data: noise, latency, cost, and monitoring.
| Paper | Venue | Focus |
|---|---|---|
| Stroke detection via wearable signal | IEEE | Computer Vision, healthcare |
| Skin lesion and melanoma classification | IEEE | Computer Vision, healthcare |
| Mercosur license plate recognition (ALPR) | Springer | Computer Vision, real world systems |
| Additional peer reviewed work | LISIA Research Group | Applied ML methodology |
Backend and architecture: Java/Spring · Go · Node · Python · microservices · gRPC/GraphQL · Kafka · AWS AI/ML: Computer Vision · Deep Learning · GenAI · LLMs/RAG · MLOps (MLflow, FastAPI) Data and infra: Databricks · Docker · Terraform · ELK
Roadmap of focused, Dockerized projects, each with a real README and a benchmark. Pinned as they ship.
- 🔬 yolo-training-pipeline: computer vision training and inference benchmark, Dockerized
- 🤖 llm-eval-harness: reproducible evaluation suite for RAG and LLM pipelines
- ☁️ mini-aws-emulator: lightweight local emulator for core AWS services (Go)
- 🏗️ spring-hexagonal-payments: hexagonal architecture reference implementation
If you work on applied AI or on the systems that put it in production, I am always glad to exchange ideas.
m/Brilhante29">I build systems that take AI research into production. My work sits at the intersection of two tracks I have followed in parallel since early on:
- Applied AI research: computer vision and GenAI, peer reviewed in IEEE and Springer (stroke detection from wearable signals at 99% accuracy, medical image analysis, license plate recognition)
- Scalable backend engineering: microservices and distributed systems in production, currently at Zup (Itaú Group)
I care less about a headline accuracy number and more about what it takes to make a model survive real data: noise, latency, cost, and monitoring.
| Paper | Venue | Focus |
|---|---|---|
| Stroke detection via wearable signal | IEEE | Computer Vision, healthcare |
| Skin lesion and melanoma classification | IEEE | Computer Vision, healthcare |
| Mercosur license plate recognition (ALPR) | Springer | Computer Vision, real world systems |
| Additional peer reviewed work | LISIA Research Group | Applied ML methodology |
Backend and architecture: Java/Spring · Go · Node · Python · microservices · gRPC/GraphQL · Kafka · AWS AI/ML: Computer Vision · Deep Learning · GenAI · LLMs/RAG · MLOps (MLflow, FastAPI) Data and infra: Databricks · Docker · Terraform · ELK
Roadmap of focused, Dockerized projects, each with a real README and a benchmark. Pinned as they ship.
- 🔬 yolo-training-pipeline: computer vision training and inference benchmark, Dockerized
- 🤖 llm-eval-harness: reproducible evaluation suite for RAG and LLM pipelines
- ☁️ mini-aws-emulator: lightweight local emulator for core AWS services (Go)
- 🏗️ spring-hexagonal-payments: hexagonal architecture reference implementation
If you work on applied AI or on the systems that put it in production, I am always glad to exchange ideas.


