Measured outcome
No measured outcome has been published with supporting evidence for this project.
04 / Project / Automation
End-to-End MLOps Deep Learning Pipeline for Computer Vision CNN Training | Transfer Learning | Production Deployment
01 / Overview
Built an end-to-end MLOps deep learning project that predicts bird disease classes from images and packages the full workflow from experimentation to deployment. The pipeline covers data ingestion and preprocessing, model training (CNN/transfer learning), evaluation with standard metrics, and versioned model packaging for reproducible releases. The project is structured like a production system: modular pipeline stages, configurable environments, and deployment-ready components (API/app + containerization). It's designed to be extended with CI/CD automation, model registry/versioning, and monitoring patterns typically used in real MLOps teams.
Measured outcome
No measured outcome has been published with supporting evidence for this project.
02 / Architecture
Grouped from the stack recorded for this project. Scroll to walk the layers, or hover one for its components.
Where a request or upload enters the system.
Handled by REST.
Handled by Computer Vision, Deep Learning.
Handled by Docker, CI/CD.
03 / Tech stack
API & services
AI layer
Cloud & monitoring
04 / Case study
End-to-End MLOps Deep Learning Pipeline for Computer Vision
CNN Training | Transfer Learning | Production Deployment
Built an end-to-end MLOps deep learning project that predicts bird disease classes from images and packages the full workflow from experimentation to deployment. The pipeline covers data ingestion and preprocessing, model training (CNN/transfer learning), evaluation with standard metrics, and versioned model packaging for reproducible releases.
The project is structured like a production system: modular pipeline stages, configurable environments, and deployment-ready components (API/app + containerization). It’s designed to be extended with CI/CD automation, model registry/versioning, and monitoring patterns typically used in real MLOps teams.
Modular Design: Separate pipeline stages for data ingestion, preprocessing, training, evaluation, and deployment with configurable parameters and environment management
Automated image ingestion, validation, and organization with support for multiple disease classes and train/validation/test splits.
🔄Advanced image preprocessing with augmentation techniques (rotation, flipping, zooming, brightness adjustment) to improve model generalization.
🧠Custom CNN architectures and transfer learning using pre-trained models (VGG16, ResNet, MobileNet) for accurate disease classification.
📊Multi-metric evaluation including accuracy, precision, recall, F1-score, confusion matrix, and per-class performance analysis.
📦Systematic model packaging and versioning for reproducible experiments and production deployments with metadata tracking.
🚀REST API for inference, web interface for interactive predictions, and Docker containerization for consistent deployment.
Early disease detection in commercial poultry farms to prevent outbreaks, reduce mortality rates, and minimize economic losses.
Assist veterinarians in rapid disease identification from visual symptoms for faster treatment decisions and better patient outcomes.
Monitor health of wild bird populations for conservation efforts and early warning of disease spread in natural habitats.
Deploy model to mobile apps for on-site disease detection by farmers and bird enthusiasts without specialized equipment.
Complete source code, model architectures, training notebooks, deployment scripts, and detailed documentation available on GitHub.
I build end-to-end deep learning pipelines for image classification, object detection, and computer vision applications with production deployment.
Next step
Tell me what you’re working on and where it gets difficult. I’ll share how this project’s approach would apply to your case.