Abstract
Remote sensing science is expected to produce spatio-temporal indicators to help societies to address major global challenges. In this regard, we have implemented the CHOVE-CHUVA web platform to monitor socio-environmental dynamics in the Brazilian Amazon state of Mato Grosso. Result of a long-term collaboration between research labs, local NGOs, and administrations, this Space for Climate Observatory initiative relies on two major pillars: (1) visualizing and computing spatio-temporal indices derived from Earth Observation data and (2) collecting citizen information as part of collaborative science. A major asset of the platform is to gather, visualize, and process data covering a wide range of themes such as land status, land use, climate, natural vegetation, agriculture, and hydrology. The collaborative information refers to land use types that are still unusual in Mato Grosso, i.e., forest restoration and low-carbon agricultural practices. The implementation of the platform was based on a French open source geospatial data infrastructure named PRODIGE. Prospects for enhancing the platform include integrating new thematic information, making better use of raw Earth Observation data, improving interactions with end-users to better capture their interpretation of socio-environmental dynamics, and improving the platform’s efficiency to update data and process large study areas.
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Data availability
The data (spatio-temporal indices) that support the findings of this study are openly shown at www.sco.chove-chuva.org and are available from the corresponding author on request.
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Funding
This work was supported by 1) the French National Center for Space Studies (CNES) through the CHOVE-CHUVA Space For Climate Observatory (SCO CHOVE-CHUVA), 2) the CNES through the SEMTI-SENT project, 3) the French National Research Agency (ANR) through the TELKANTE LAB project, 4) the recruitment of two engineers under the France Relance plan, and 5) the European Joint Programme (EJP) for the institutional support and for fostering scientific collaboration, and the ANR for the financial support of the Project: Soil ecosystem services under sustainable intensification of agriculture – looking for innovative mapping and monitoring at multiple scales (ID number 31/SOIL-ES).
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The concept for this work was developed by D. A., A. B. and A. B.. D. A., V. D., B. F., U. R., J. B., A. B., V. S., A. D., C. d. S., M. S., R. F. and P. K. listed the spatio-temporal indices to be displayed. D. A., A. B., U. R., J. D. and L. R. processed the data and implemented the web platform. D. A. wrote the original version of the paper and all authors contributed on specific sections. D. A., A. B., and A. B. managed the administration and acquisition of project funds. All authors have read and approved the published version of the manuscript.
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Arvor, D., Denize, J., Rouxel, L. et al. The CHOVE-CHUVA Earth observation platform to monitor socio-environmental dynamics in Mato Grosso, Brazil.
Sci Rep (2026). https://doi.org/10.1038/s41598-026-36640-w
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DOI: https://doi.org/10.1038/s41598-026-36640-w
Keywords
- Climate
- Land use dynamics
- Remote sensing
- Citizen science
- Spatial data infrastructure
Source: Ecology - nature.com
