We mobilise people and resources to create, curate, make sense of and use knowledge to inform policymaking across Europe.
Earth Observation (EO) data has become an indispensable asset for informing critical decisions across multiple domains. The EU Space Programme explicitly recognizes its transformative potential for societies and citizens' lives, particularly through Copernicus, Europe's flagship EO programme. Copernicus is user- and policy-driven, and it is enabled by Services with significant investments and world-leading capabilities.
Despite this, a persistent gap remains between specific policy needs and available products and services. This “last-mile” reflects a critical disconnect whereby raw EO data and core services require additional tailoring to become directly usable for policy implementation, monitoring, and evaluation, as policymakers lack standardized, validated tools to translate observations into the reporting indicators, compliance metrics, risk assessments, or impact evaluations required by specific legal frameworks.
These gaps, repeatedly identified in policy uptake assessments conducted through the Knowledge Centre on Earth Observation (KCEO), indicate two key aspects that require attention. The first relates to prototyping tailored policy applications, and the second concerns their long-term sustainability. The latter can be envisaged either within or outside of Copernicus. A coordinated approach is required for the former, taking advantage of Europe's broad research competencies, and it should be developed closely with Copernicus entities and partners to ensure an effective transition from research to operations and sustainability. These elements are also related to "last mile" prototyping were identified and remain central to the Earth Observation Strategic Research and Innovation Agenda (SRIA), which guides European R&I priorities required for efficient Copernicus evolution.
A longer-term ambition that would address this need for a coordinated approach to the prototyping of these types of applications would be to establish an EU Earth Observation science service. This service would bring together an EO competence network covering different thematic areas that could address specific requests and provide technical specifications and prototypes for implementation in operations. This science service should leverage existing networks in Europe, such as the EuroGEO community and its Action Groups, as well as Copernicus uptake activities at national and European scale. The KCEO could act at the interface, to the science service, in providing the policy application needs from the Directorates-General (DGs) as the basis for defining technical specifications and prototypes and ensuring that the EO science service develops truly fit-for-purpose applications.
As a forward-looking vision for this ambition the KCEO and EO science service should play a central role in accomplishing the following objectives:
Comprehensive implementation of these objectives is a long-term development that must be carried out incrementally. The open 2025-26 Horizon Europe call provides an immediate opportunity to begin building the foundations of such a science service with anticipated continuation in the 2026 work programme. Successful proposals should contribute to organising scientific knowledge supporting European and international frameworks, address cross-cutting policy needs using EO, and develop and validate EO-based intelligence solutions and datasets to bridge the “last-mile” gap, while supporting the update of a policy-driven EO R&I Roadmap for the next Multiannual Financial Framework, under the guidance of the KCEO.
The remainder of this article will highlight the KCEO resources, as well as potential roles and interfaces, that will ensure that this common effort can be built to effectively support the needs for EO-based “last-mile” policy applications.
To bridge the ‘last mile’ gap, develop fit-for-purpose applications, and support decision-making, the KCEO conducts its assessments using a systematic inverse value chain approach, beginning with a data-agnostic identification of policy and decision-making needs. These are then translated into requirements for applications and services, subsequently into product specifications, and ultimately into requirements for the observation system itself, thereby ensuring strong traceability throughout the entire value chain (EU policies and Earth Observation | Knowledge for policy). To this end, the KCEO employs the following approaches:
Deep Dives Assessments: Tools to enhance EO uptake in EU policies focused on specific needs and use of EO in particular policy areas. Each deep dive follows a four-part methodology: (1) examining established EO applications where satellite monitoring is operationally mature across major policy areas; (2) exploring emerging EO applications through detailed use cases; (3) performing a systematic gap analysis of technical, institutional, and operational limitations; and (4) reviewing cross-cutting implementation requirements. So far, thematic deep dives on Biodiversity and Urban Climate Adaptation have been produced, with a deep dive on Compliance Assurance currently under development (with publication planned for Q2 2026). As a state-of-the-art example in this type of assessment, the following use cases are covered within the Compliance Assurance Deep Dive:
KCEO Policy Survey and Assessment: The KCEO Survey provides a comprehensive overview of opportunities and ongoing challenges in Copernicus uptake across European Commission Directorate-Generals, by applying a structured framework to bridge the “last-mile” gap between EO capabilities and policy needs. The elicitation phase systematically captures EO requirements across all Directorate-Generals through a multi-channel approach, and co-design, followed by a five-step methodology - (1) identification of application needs, (2) product inventory, (3) assessment of match level, (4) gap analysis, and (5) definition of improvements. This methodology translates needs into user requirements, supported by iterative feedback and validation from Policy Directorate-Generals to ensure relevance and accuracy in the recommendations for the Copernicus Programme evolution.
Land Use Change Detection
Upgrade AKIS
Coverage of stony landscape features
Coverage of grassy landscape features
Upgrade SAIS framework
Upgrade Geo-spatial application (GSA)
Upgrade Area monitoring system (AMS)
Monitor rural development patterns, including deforestation, urban expansion, and agricultural shifts
Conduct territorial analysis
Land suitability analysis
Detect trends and seasonal variations in atmospheric composition
LULUCF GHG emission controls
GHG Emissions Monitoring & Verification
Climate Change Impact & Adaptation Monitoring
Land use and land cover change
Anthropogenic GHG emission concentration and super-emitters
Air and maritime transport emissions
Trends in aviation emissions effects related to contrail formation
EU ETS monitoring aviation non-CO2 effects MRV
Monitoring non-CO2 effects MRV.
Trend analysis in vessel emissions.
GHG Emission Plume Monitoring from Ships
Ship Activity Monitoring & Verification
Provide ship-routing information to the EU ETS, maritime transport MRV
Leak detection
Monitoring the status of forests in the EU
Land-cover change
Monitoring natural disturbances
Biomass or carbon stock estimation
Climate adaptation compliance
Energy adaptation compliance
Support transition to climate neutrality (green transport and renewable energy)
Update platform Climate-ADAPT
Trend analysis on climate impact
Climate Risk assessments
Monitoring the Global Methane Pledge
Climate Risk and Vulnerability Assessment (RVA)
Monitoring climate mitigation and adaptation measures
Early warning for emerging threats - volcanoes
Early warning for emerging threats - landslides
Rapid response and impact assessment during disasters
Risk and recovery mapping for preparedness
Energy system modelling
Long-term climate scenario for renewable energy planning
Renewable energy integration planning
Renewable energy integration monitoring
Identification and monitoring of energy loss and waste heat
Support to energy efficiency planning and progress tracking
Support to building stock characterisation
Energy performance monitoring
Renovation planning
Risk assessment of electricity infrastructure exposure to natural hazards
Preparedness planning for electricity infrastructure exposure to natural hazards
Rapid mapping of natural hazard impact on infrastructure to support effective crisis response
Building characteristics assessment for solar potential
Mapping and assessment of rooftop solar PV potential
Monitor ambient PM2.5 concentrations spatially and temporally to identify areas and populations exceeding legal standards
Water pollution monitoring
Quantify pollution of air, water (incl. marine) and soil
Mapping water availability (including small water bodies)
Map and monitor agricultural water use and stress
Track water uses intensity and availability in industrial areas
Regional water stress mapping and monitoring
Monitoring and assessing water demand and sustainability across sectors and urban areas
Real-time monitoring and early warning systems to support responses
Evaluating water footprint/use across supply chains
Mapping urban areas prone to water-related risk
Water footprint mapping to contextualise water use and supply chains across regions
Monitor water quality including small water bodies
Water Quality Monitoring
Monitoring water quality and flood risks in support of spatial implementation of the Water Framework Directive and Floods Directive
Water quantity monitoring and availability, including small water bodies
Map and monitor nutrient loading zones and eutrophication hotpots
Detection and remediation of PFAs and other persistent chemicals, supporting prioritization and mapping vulnerable areas
Water productivity monitoring
Identifying reuse opportunities
Urban dynamics/indirect leakage detection
Mapping water challenges to support equitable water governance
Flood hazard mapping
Flood risk assessment
Early warning
Forecasting for flood preparedness
Rapid flood extent mapping and emergency response support
Point and diffuse pollution sources monitoring
Identifying exceedances of EQS
Hydrographical conditions and changes and climate change parameters
Habitat monitoring
Marine litter monitoring, including macro litter
Detection and monitoring of human activities in the sea and associated pressures
Reduce eutrophication
Tracking of ships and their emission plumes, particularly in Emission Control Areas, other and territorial waters and exclusive economic zones
Sulphur and Nitrogen oxides monitoring
Assessment of acidification effects on sensitive ecosystems through vegetation stress detection and environmental monitoring
Water quality monitoring and classification of bathing sites
Early warning - detection of environmental and health hazards affecting bathing site safety
Monitor GHG and other pollutants emission levels from industrial installations
Land, water and marine pollution identification
Improved environmental monitoring and land cover changes
Agricultural emission monitoring
Mapping and localisation of forest units
Soil health monitoring
Soil sealing and land take monitoring
Terrestrial and marine ecosystems
pollution monitoring
Protected areas coverage mapping and monitoring
Terrestrial and marine ecosystems status
Monitoring
Urban greening assessment and monitoring
Monitoring sustainable farming land
Habitat monitoring and reporting under the NRR
Coastal wetland extent and change
Urban green areas assessment
Habitat condition assessment
Mapping key pollinator areas in the EU
Monitoring key pollinator ecosystems per the integrated framework for monitoring pollinator decline
Mapping habitat connectivity and ecological corridors for pollinators
Monitoring ecological corridors for continuity and pressures
Monitoring changes in agriculture landscapes important for pollinators
Monitoring implementation of Green Urban landscapes
Monitoring climate change impacts on habitats important for pollinators
Monitoring light pollution
Baseline for building evidence of non-compliance with obligations under EU environmental law
Alerts of environmental crimes for gathering evidence
Identification of pollutant/degradation
Deforestation map
Monitoring forest degradation
Situational awareness and activity detection at marine borders
Situational awareness and activity detection at land borders and pre-frontier areas
Detection of temporary settlements
Population displacement detection
Capacity monitoring and demand forecasting for asylum and reception systems
Urban expansion monitoring
Air quality monitoring and forecasting
Mapping renewable energy potential
Land use and forest change
Identification and monitoring of climate risks and hazards
Mapping of existing electricity generation and network infrastructure by type of
renewable energy potential - Clean Energy Access Prioritiser (CEAP)
Hazard exposure monitoring
Vulnerability and exposure evaluation of infrastructure
Resilience and adaptation assessment
Risk mapping for preparedness
Early warning for emerging threats
Climatic adaptation uncertainty and sensitivity reporting
Monitoring of climate change risks/adaptation in urban settings
Key landscape features mapping
Mapping of pressures on the landscape (environmental and anthropogenic)
Forest change detection for deforestation monitoring
Climate risk assessment impacting commodity production areas
Mapping water access points and other infrastructure and energy network mapping, including vulnerability of areas
Urban resilience mapping and spatial inequalities
Mapping for urban services (including new/upcoming projects) – with the integration into IDEATLAS
Geospatial modelling to simulate potential scenarios of urban services as key development drivers
Mapping transportation and traffic
Identification/Mapping of transport routes between countries
Transport sector vulnerability (social and climate)
Supporting the development of sustainable transport modes/routes
Climate change monitoring and adaptation
Disaster risk reduction and early warning
Natural resource management and governance
Forest monitoring and deforestation tracking
Urban development monitoring; Land use change monitoring
Mapping of marine physical characteristics
Seabed mapping
Marine habitat mapping
Marine water quality monitoring
Human activities mapping and anthropogenic driven pressures
Mapping aquaculture activities
Mapping environmental impacts of aquaculture
Mapping potential areas for growth for aquaculture
Forecasting climate change impacts on aquaculture
Vessel activity mapping and intensity monitoring
Offshore energy spatial monitoring
Aquaculture siting and expansion monitoring
Coastal infrastructure and land - sea interface monitoring
Environmental condition monitoring
Fishing vessel monitoring
Unreported fishing vessels tracking
Monitoring vessels’ compliance with fishing restricted zones
Marine species distribution and movement
Benthic habitat mapping
Transport infrastructure change detection, including damage and disruption, along military mobility corridors
Climate vulnerability/risks assessment of military mobility transport corridors
Transport infrastructure monitoring
Network compliance assessment
Climate vulnerability and risk assessment for transport infrastructure, including also military mobility corridors
Environmental impact monitoring
Military mobility infrastructure monitoring
Border crossing efficiency monitoring
Pollution detection and compliance monitoring
GHG emissions monitoring for decarbonisation compliance
Vessel safety and security monitoring
Route optimization and emission-efficient navigation
Port activity monitoring and maritime traffic flow analysis
Infrastructure and urban development monitoring
Environmental and pollution trend analysis
Land use and environmental condition assessment
Climate risk monitoring
Early warning for climate-related hazards
Environmental stress and land degradation monitoring
Water resource monitoring
Agriculture monitoring
Land use monitoring
Anthropogenic greenhouse gas emissions monitoring
Climate and vector disease vulnerability mapping
Natural hazard risk and recovery mapping for preparedness
Environmental quality trend analysis
Prevention and early detection of phytosanitary risk spread
Identification of phytosanitary risk-prone areas for vegetation
Mapping and monitoring plant health (for annual survey reporting and creation)
Support the assessment of damage in case of pest outbreaks (contention support)
Assessment of internal treaties and commitments: The KCEO has developed an ongoing initiative to enhance EO's contribution to international frameworks such as the 2030 Development Agenda, UNFCCC, CBD, and SDGs. The assessment focuses on a systematic process to align policy needs with EO capabilities: (1) extracting policy targets from international treaties using AI-assisted analysis; (2) translating them into concrete EO requirements (resolution, frequency, extent); (3) validating needs with expert reviewers; (4) compiling a unified catalogue of global EO products from Copernicus, JRC, NASA, CEOS, and others; (5) matching needs to existing data using a suitability score; and (6) identifying priority gaps and best-available EO solutions for policy reporting. This exercise encompasses more than 30 international treaties and conventions (see full list below).
The EO science service and the KCEO should engage with the Copernicus Entrusted Entities, Member States, as well as European and global GEO initiatives within its governance framework. This will ensure longer-term sustainability and facilitate the upscaling of the KCEO policy assessments. The different roles, responsibilities, and mutual interfaces among the actors would ensure operational flexibility and scalability, strategic alignment, efficient resource mobilisation, and coordinated contributions to European priorities and international commitments, building on existing European EO structures. The following key interfaces are conceptualized:
The 2025-26 Horizon Europe call provides the first concrete opportunity to implemnt key components of the EO science service. Successful proposals will address elected elements of the science–policy interface by engaging the research community, in particular in activities related to prototyping tailored EO applications based on KCEO-identified policy needs, while contributing to the evolution of the Strategic Research and Innovation Agenda (SRIA). These foundational projects will establish the methodologies, governance structures, and validation frameworks required for the further development and consolidation of the EO science service under the next Multiannual Financial Framework and future initiatives.
The functional workflow between the KCEO and the EO science service will be a continuous, iterative process designed to ensure that EO applications are developed with direct policy relevance and user needs at their core. This systematic interface is essential for bridging the gap between data and intelligence, ensuring that research and innovation (R&I) translate into operational services.
Horizon Europe (HORIZON)
Interconnect Earth Observation research for addressing environmental policies (URL)
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Contact: EC-KCEO@ec.europe.eu
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27 Jan 2026 | 20 Mar 2026
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