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Climate forecasting and geospatial ML at IBM Research

Turning environmental data into something people can use

Satellite, climate and environmental data is too large to treat as an ordinary dataset. The work was making it into information researchers, businesses and decision makers could act on.

What it is
Programme of work
Role
Machine Learning Research Scientist
Organisation
IBM Research
Period
April 2020 to November 2021
Status
Completed
Built with
Topics
  • Climate risk
  • Geospatial machine learning
  • Remote sensing
  • Seasonal forecasting
  • Deep learning
Climate forecasting and geospatial ML at IBM Research: Turning environmental data into something people can use

The problem

Climate and environmental questions need satellite, geospatial and temporal data at a scale almost no organisation can process alone: large image collections, raster and vector formats, and varying spatial and temporal resolution. The analytical challenge was inseparable from the engineering one, because the data is too large to treat as an ordinary single-machine dataset.

Why it mattered

The point was never to build models in isolation. It was to turn enormous environmental datasets into reliable information that researchers, businesses and decision makers could actually use.

The context

IBM Research, working with distributed compute and IBM PAIRS Geoscope, an enterprise geospatial-temporal platform, described in plain terms, a system for analysing huge volumes of geospatial and time-dependent data, handling petabyte-scale data and used for environmental and enterprise analytics.

What I did

I conducted applied machine-learning research in climate, environmental intelligence, remote sensing and geospatial analytics, combining scientific experimentation with production-oriented engineering. I worked with large geospatial, satellite and environmental datasets in distributed environments using TensorFlow and related tooling, developing forecasting and predictive models that could operate beyond single-machine research workflows, and deployed climate-forecasting models into the PAIRS Geoscope platform. I co-authored research with international scientists and engineers, contributing across experimentation, model development, evaluation, data pipelines and operationalisation. Separately, and during an emerging public-health crisis, I contributed to the Gauteng COVID-19 risk-index and prediction dashboard, a collaboration between IBM Research Africa, Wits University and the GCRO, supporting hotspot identification and healthcare-resource planning for the Gauteng Provincial Department of Health. It was a team effort, not mine alone.

What changed

Research became usable: forecasting models moved from experiment into an enterprise platform, and during the pandemic rapidly changing data was turned into information that could support provincial health planning rather than sitting in an analysis.

Who benefited

Enterprises needing environmental, climate and supply-chain risk intelligence through IBM’s platforms, the research community through published work, and provincial health planners making resourcing decisions under time pressure.

What remained

Models running inside an enterprise geospatial platform, a contribution to a provincial public-health planning dashboard, and co-authored research, including "Long-Range Seasonal Forecasting of 2m-Temperature with Machine Learning", presented at the Tackling Climate Change with ML workshop at NeurIPS 2020 with colleagues from IBM Research.

Technical context

TensorFlow, distributed compute and distributed data platforms, IBM PAIRS Geoscope, IBM Cloud, geospatial raster and vector processing, large-scale experimentation, Python.

Lineage

Led to
Flood and natural catastrophe risk in insurance. Geospatial climate risk carried into production insurance models.

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