A Modern MLOps Platform for Humanitarian Action

This interactive blueprint outlines a open-source MLOps platform designed to bring scalable machine learning to the humanitarian sector, enabling timely and data-driven insights for disaster response and development.

Transparency

Ensure every prediction is traceable to its source code, data, and model version for full auditability and accountability.

Reproducibility

Guarantee that any training run or experiment can be perfectly reproduced, fostering collaboration and scientific validation.

Accessibility

Empower non-technical experts to discover, run, and interpret model outputs through a user-friendly interface.

Cost-Effectiveness

Prioritize open-source tools and efficient cloud resource management(swap up and shut down pods) to minimize operational costs for budget-conscious organizations.

The Unified Architecture

The platform is an ecosystem of open-source components orchestrated by Kubernetes. Click on any component in the diagram to learn more about its role.

USERS
EXECUTION ENVIRONMENT (KUBERNETES)
Data Scientist
Administrator
End-User
API Gateways
STAC API
MLflow
Argo Workflows
Seldon Core
DVC
Object Storage

Select a Component

Click on a component in the diagram to see its detailed description, role, and the justification for its selection in this architecture.

Workflows in Action

Explore the three primary automated workflows that power the platform's lifecycle management for machine learning models.

The Open-Source Technology Stack

This platform is built on a "best-of-breed" stack of powerful, open-source tools. Each component was chosen for its specific strengths, creating a modular and flexible system.

STAC & MLM

The discoverability core, providing a standardized catalog for all models and data.

MLflow

The experimentation engine for tracking, packaging, and registering models.

Argo Workflows

The lightweight orchestrator for running container-based training pipelines.

Seldon Core

The advanced serving gateway for deploying complex inference graphs.

DVC

The version control system for large-scale data, ensuring reproducibility.

MinIO

The high-performance, S3-compatible storage for all artifacts and data.

Kubernetes

The foundational layer providing a scalable and resilient execution environment.

PostgreSQL

The robust database backend for both the STAC catalog and MLflow tracking.

Phased Implementation Roadmap

A tentative path for moving from local proof-of-concept to a fully operational, production-grade platform.

Phase 1: Local PoC

Deploy the core backend services (Postgres, MinIO, MLflow, STAC API) using Docker Compose to validate basic integration and workflows on a local machine.

Phase 2: Model Standardization

Package a reference model (e.g., Building Detector) with a standard MLproject, Dockerfile, and STAC MLM item. Set up Git and DVC repositories.

Phase 3: End-to-End on k3s

Deploy the full stack to a single-instance cloud server with k3s. Implement and test the complete, automated Argo training pipeline and Seldon inference service.

Phase 4: Production on EKS

Provision a production-grade AWS EKS cluster using Terraform. Deploy all application components via Helm charts. Implement observability and autoscaling.

Phase 5: Frontend & Adoption

Develop the user-facing web application for model discovery and interactive inference. Conduct user testing and iterate based on feedback from the humanitarian community.