Seamus Lombardo, Amy Rosenthal, Christopher Anderson, Ken Bagstad, Carly Batist, Christopher Beirne, Paul Bunje, Marconi Campos‐Cerqueira, Jeremy Cusack, Elsa Carla De Grandi, Rachel King, Trond Larsen, David Luther, Jennifer McGowan, Adrien Pajot, Xavier Raick, Vijay Ramesh, Chelsea Smith, Ali Swanson, Tom Walker
{"title":"Paradigms and Principles for Integrating Nature Technology Data: Challenges, Opportunities, and Next Steps in Real‐World Biodiversity Monitoring","authors":"Seamus Lombardo, Amy Rosenthal, Christopher Anderson, Ken Bagstad, Carly Batist, Christopher Beirne, Paul Bunje, Marconi Campos‐Cerqueira, Jeremy Cusack, Elsa Carla De Grandi, Rachel King, Trond Larsen, David Luther, Jennifer McGowan, Adrien Pajot, Xavier Raick, Vijay Ramesh, Chelsea Smith, Ali Swanson, Tom Walker","doi":"10.1002/rse2.70100","DOIUrl":null,"url":null,"abstract":"Employing a combination of nature technology data (NTD) from satellites, eDNA, camera traps, acoustic monitors, and GPS can augment traditional biodiversity measurements to help understand conservation status and outcomes. While previous works have integrated these data, there remains a significant gap between individual exploratory cases and replicable, scalable, and standardized approaches. Notably, there is no clear guidance or consensus on how NTD are best integrated in practice. To address this gap, we propose a set of paradigms (survey design, tip and cue, validation, consilience, interpolation and extrapolation, and data fusion) and prioritize a set of principles (metadata standards, use rights and licensing, scientific rigor, and utility) as the foundations of an actionable framework for NTD integration. We then analyze seven diverse, real‐world case studies across biomes, use cases, and user types to understand what paradigms are leveraged in practice, how prioritized principles have been implemented, and identify challenges, opportunities, and next steps. Distilling NTD integration into paradigms helped map the relationships between workflows, such as how low‐barrier‐to‐entry methods (like consilience) can lead to deeper integration (extrapolation or data fusion), and revealed that there are different purposes and tools needed even when sensor use is similar. The paradigms also helped elucidate key challenges (such as mismatches in scale and lack of data, reference libraries, and methodological guidance) and opportunities (increasing data resolution, systematizing guidance, and producing new repeatable tools). For prioritized principles, metadata standards and vehicles for sharing permissions and use rights could increase impact and reuse. We conclude that next steps, including new training resources, use of high‐resolution satellite data, increased multimodal field data collection, use of standardized repositories, and APIs that support integration, are needed to operationalize these paradigms and principles. These steps will provide a foundation for realizing the potential of integrated biodiversity monitoring to help guide conservation action.","PeriodicalId":21132,"journal":{"name":"Remote Sensing in Ecology and Conservation","volume":"73 1","pages":""},"PeriodicalIF":5.2000,"publicationDate":"2026-08-25","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Remote Sensing in Ecology and Conservation","FirstCategoryId":"93","ListUrlMain":"https://doi.org/10.1002/rse2.70100","RegionNum":2,"RegionCategory":"环境科学与生态学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q1","JCRName":"ECOLOGY","Score":null,"Total":0}
引用次数: 0
Abstract
Employing a combination of nature technology data (NTD) from satellites, eDNA, camera traps, acoustic monitors, and GPS can augment traditional biodiversity measurements to help understand conservation status and outcomes. While previous works have integrated these data, there remains a significant gap between individual exploratory cases and replicable, scalable, and standardized approaches. Notably, there is no clear guidance or consensus on how NTD are best integrated in practice. To address this gap, we propose a set of paradigms (survey design, tip and cue, validation, consilience, interpolation and extrapolation, and data fusion) and prioritize a set of principles (metadata standards, use rights and licensing, scientific rigor, and utility) as the foundations of an actionable framework for NTD integration. We then analyze seven diverse, real‐world case studies across biomes, use cases, and user types to understand what paradigms are leveraged in practice, how prioritized principles have been implemented, and identify challenges, opportunities, and next steps. Distilling NTD integration into paradigms helped map the relationships between workflows, such as how low‐barrier‐to‐entry methods (like consilience) can lead to deeper integration (extrapolation or data fusion), and revealed that there are different purposes and tools needed even when sensor use is similar. The paradigms also helped elucidate key challenges (such as mismatches in scale and lack of data, reference libraries, and methodological guidance) and opportunities (increasing data resolution, systematizing guidance, and producing new repeatable tools). For prioritized principles, metadata standards and vehicles for sharing permissions and use rights could increase impact and reuse. We conclude that next steps, including new training resources, use of high‐resolution satellite data, increased multimodal field data collection, use of standardized repositories, and APIs that support integration, are needed to operationalize these paradigms and principles. These steps will provide a foundation for realizing the potential of integrated biodiversity monitoring to help guide conservation action.
期刊介绍:
emote Sensing in Ecology and Conservation provides a forum for rapid, peer-reviewed publication of novel, multidisciplinary research at the interface between remote sensing science and ecology and conservation. The journal prioritizes findings that advance the scientific basis of ecology and conservation, promoting the development of remote-sensing based methods relevant to the management of land use and biological systems at all levels, from populations and species to ecosystems and biomes. The journal defines remote sensing in its broadest sense, including data acquisition by hand-held and fixed ground-based sensors, such as camera traps and acoustic recorders, and sensors on airplanes and satellites. The intended journal’s audience includes ecologists, conservation scientists, policy makers, managers of terrestrial and aquatic systems, remote sensing scientists, and students.
Remote Sensing in Ecology and Conservation is a fully open access journal from Wiley and the Zoological Society of London. Remote sensing has enormous potential as to provide information on the state of, and pressures on, biological diversity and ecosystem services, at multiple spatial and temporal scales. This new publication provides a forum for multidisciplinary research in remote sensing science, ecological research and conservation science.