DOI: 10.3390/rs18213737 ISSN: 2072-4292

GeoPROV: A Semantic Provenance Profile for Coastal EO-Derived Products Informed by a Systematic Review of Spatial Data Supply Chains

Muhammad Azeem Sadiq, Philip Kibet Langat, Arjun Neupane

Emerging remote sensing technologies increasingly support coastal observation through Earth observation (EO) derivatives such as satellite-derived shorelines, unmanned aerial vehicle (UAV)- and light detection and ranging (LiDAR)-based elevation models, coastal land-use/land-cover products, bathymetric grids, turbidity and chlorophyll-a indicators, habitat maps, flood extents, and artificial intelligence (AI)-generated segmentation outputs. These EO-derived products are central to shoreline monitoring, coastal vulnerability assessment, flood-response planning, marine ecosystem management, and land–sea administration. Yet their evidential value depends on transparent provenance: users must know which sensor, acquisition condition, preprocessing chain, algorithm, model version, validation dataset, and uncertainty estimate produced each coastal product. The review synthesises 156 eligible publications identified through a systematic review process. Of these, 89 studies containing sufficient implementation and methodological detail were selected for detailed analytical coding. Following the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) protocol, the review analyses application domains, provenance capture modes, representation strategies, semantic web technologies, and interoperability practices. A coastal EO thematic refinement translates the review findings into provenance requirements for satellite, UAV, LiDAR, Internet of Things (IoT), open-water, and AI-enabled coastal observation workflows. The review identifies persistent gaps in feature-level lineage, alignment between the World Wide Web Consortium Provenance Ontology (PROV-O) and International Organization for Standardization (ISO) geospatial metadata standards, spatial semantics, AI workflow transparency, uncertainty traceability, and scalable querying. To address these limitations, the paper introduces GeoPROV, a lightweight semantic profile of PROV-O designed for spatially explicit, feature-level provenance. GeoPROV aligns PROV-O with ISO 19115/19157, GeoSPARQL, Shapes Constraint Language (SHACL), and SpatioTemporal Asset Catalogue (STAC)-compatible catalogue practices. The framework enables EO-derived coastal products to be traced from raw observation through preprocessing, AI/geoprocessing, validation, catalogue publication, and coastal-administrative decision-making. The resulting GeoPROV profile integrates PROV-O, GeoSPARQL, SHACL, ISO 19115/19157 lineage concepts, and STAC metadata within a lightweight semantic framework demonstrated through a coastal EO product workflow and machine-actionable provenance implementation.

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