Which projection should my pipeline compute in?
Measured areal distortion for EASE-Grid 2.0, Mollweide, Albers and UTM, why Web Mercator is disqualifying for carbon work, and how to document the choice.
Read the guideBuild, automate, and validate satellite-driven carbon accounting and MRV systems — from raw imagery to audit-ready emissions inventories.
Modern carbon accounting has moved from spreadsheets into distributed, spatially explicit data pipelines. Spatial Pipeline Engineering is a practitioner-focused resource for engineering those pipelines: deterministic geospatial processing, rigorous uncertainty quantification, and cryptographically verifiable audit trails that meet institutional standards.
Written for ESG engineers, climate data scientists, and Python GIS teams, every guide pairs production-ready code with the compliance context behind it — GHG Protocol scoping, ISO 14064, CSRD, and the registry workflows that turn satellite observations into defensible inventories.
The library is organized into four sections covering the full lifecycle: designing MRV architecture, processing satellite imagery for emissions tracking, modeling and validating carbon stocks, and orchestrating and governing the pipelines that tie them together — schema contracts, workflow orchestration, and registry standards. 84 pages in total, each with production Python, the compliance mapping behind it, and hand-drawn diagrams of the mechanisms that actually break. Pick a section below to dive in.
Four questions practitioners arrive with, and the page that answers each.
Measured areal distortion for EASE-Grid 2.0, Mollweide, Albers and UTM, why Web Mercator is disqualifying for carbon work, and how to document the choice.
Read the guideTwelve silent failure modes that corrupt carbon numbers without failing a task — datum fallbacks, partial writes, categorical resampling — each with a diagnostic and the invariant that catches it.
Read the guideIntegrated mass enhancement and cross-sectional flux implemented end to end, with the uncertainty budget that shows why wind data beats sharper imagery.
Read the guideReversal detection, leakage against matched controls, and the pinned issuance-era model that stops a software upgrade being reported as a forest loss.
Read the guideFour sections, each with focused topics and step-by-step Python implementation guides.
Core design patterns for MRV pipelines: equal-area spatial alignment, GHG Protocol scoping, spatial joins and topology, data lineage, and registry integration.
Orchestrating MRV pipelines with Airflow/Prefect/Dagster, pipeline observability and failure modes, the canonical data-schema reference, and registry standards.
Cloud masking, temporal aggregation, distributed tile processing, deforestation alerts, and methane plume retrieval from Sentinel, Landsat and hyperspectral archives.
Carbon stock baselines, LiDAR/SAR biomass fusion, soil organic carbon, permanence and leakage monitoring, ground-truth alignment, and uncertainty mapping.