
Satellite observations can contribute to 48 of the 59 indicators examined in a new European assessment of climate adaptation monitoring. The European Space Agency (ESA) and the European Commission’s Joint Research Centre (JRC) classified those contributions as direct measurements of physical components, indirect inputs through models, or information about environmental conditions.
Their workshop report, released on October 30, 2026, connects Earth observation capabilities with the Global Goal on Adaptation. It examines how information collected from orbit can support the indicators adopted at the 2025 United Nations climate conference, COP30.
The assessment distinguishes between measuring environmental change and reporting an entire adaptation indicator. Its classifications concern the contribution satellite observations can make within a broader measurement system that also combines ground observations, administrative records, socioeconomic information, and evidence about adaptation activities.
Three Ways Satellite Data Contribute
According to ESA’s account of the findings, 11 indicators contain physical components that satellites can measure directly. Another 16 can incorporate satellite observations indirectly, including through models and proxy measurements. For 21 indicators, the contribution is contextual, providing information about hazards, exposure, or environmental conditions.
These categories describe different uses of the same observing capability. Direct measurement connects a satellite-derived quantity with a physical component of an indicator. An indirect contribution incorporates observations into a calculation. Contextual information describes the conditions surrounding the activity being assessed.
The classification came from a workshop held at ESA’s European Centre for Space Applications and Telecommunications in Harwell, United Kingdom, from June 23 to 25, 2026. More than 30 participants contributed through presentations, discussions, and a collaborative mapping exercise. Participants included space agencies, United Nations organizations, researchers, service providers, businesses, and adaptation practitioners.
Water, Agriculture, and Ecosystems
The report identifies four initial priorities: water quality in bodies used for drinking-water supply; management of degraded agricultural areas; ecosystem areas covered by adaptation actions; and ecosystem threat status. These subjects connect environmental observations with existing reporting frameworks.
Repeated satellite measurements provide consistent descriptions of environmental conditions over time. For these priority indicators, that information is combined with local measurements, ecological assessments, national thresholds, and records of interventions. The resulting evidence connects observed conditions with the specific subject being reported.
A related research perspective, led by Sarah Connors and colleagues, examines satellite-derived adaptation indicators in agriculture, biodiversity, extreme events, and health. Its scope illustrates how the same observing infrastructure can serve several policy areas through different analytical methods.
The workshop also addressed uses beyond formal indicator reporting, including early warning, risk assessment, adaptation planning, and observation of the physical effects of adaptation measures. The next methodological work on the global indicators sits within the Belém–Addis Vision on Adaptation, a two-year process combining policy alignment with technical development of indicator methods and metadata.