Geospatial Data Mesh & Domain-Driven Architecture

Federated spatial data products, done right.

Enterprise spatial estates are buckling under centralized, monolithic GIS. This is a practitioner's resource for the alternative: a federated geospatial data mesh where domains own their spatial products end-to-end, governed by contracts instead of bottlenecks.

You'll find production-oriented guidance on domain-driven boundaries, product thinking for datasets, data quality and validation, self-serve platform capabilities, policy-driven routing, edge caching and tile delivery, federated cross-domain queries, idempotent Python orchestration, SLA and cost observability, and compliance — written for data architects, platform engineers, and GIS data stewards.

88 pages across three tracks, every one grounded in runnable configuration rather than diagrams alone. Start with the conceptual foundations, then move into the routing and ownership patterns that make the mesh resilient at enterprise scale.

What you'll find here

The library is organized into three complementary tracks. The fundamentals establish the architectural language; the routing track shows how federated ownership holds together under production load; the orchestration track keeps every spatial product idempotent, observable, and inside its SLA.

Geospatial Data Mesh Fundamentals

Apply domain-driven design to spatial data: define domain boundaries, treat datasets as products with SLAs and data contracts, publish measured quality and validation standards, run a self-serve platform your domains actually use, catalog raster & vector metadata, govern CRS and datum standards, and manage the full product lifecycle.

Explore Fundamentals

Federated Ownership & Routing Architecture

The decentralized control plane: cross-domain routing, API-gateway mapping, schema contracts, edge caching and tile delivery, federated cross-domain spatial joins, async execution for heavy queries, geocoding fallbacks, zero-trust security, rate limiting, and domain sync protocols.

Explore Federated Routing

Spatial Pipeline Orchestration & Observability

Keep federated spatial products operable: idempotent Python orchestration with Prefect, Airflow and Dagster, SLA monitoring and error budgets with Prometheus, cost observability attributed to product and consumer, autoscaling for tile caches, and distributed tracing across the mesh.

Explore Orchestration & Observability

Where to start

Four routes through the library, depending on what you are trying to decide today.

Recently added

The newest in-depth guides, each a single operation taken end to end with runnable configuration and the failure modes that come with it.