Legal Frameworks Governing Space Technology for Wildlife Conservation and Biodiversity Protection

Authors

  • Shikha Bhardwaj
  • Razia Chauhan

DOI:

https://doi.org/10.37591/njel.v9i1.2077

Keywords:

Legal Frameworks, surveilling ecological transformations, environmental jurisprudence, international space law, climate evaluation

Abstract

The swift proliferation of space-based technologies has repositioned outer space from a sphere of exclusive scientific inquiry to vital infrastructure underpinning terrestrial governance. One of its most significant, yet insufficiently examined, applications entails the deployment of satellite remote sensing and space-generated data for wildlife conservation and biodiversity safeguarding. Confronted with existential threats to terrestrial ecosystems—including climate change, habitat fragmentation, illicit trafficking, and anthropogenic incursion—space technologies have become essential for surveilling ecological transformations, tracing faunal displacements, and facilitating conservation enforcement. Nonetheless, this technological paradigm shift precipitates multifaceted legal quandaries situated at the confluence of international space law, environmental jurisprudence, and national regulatory apparatuses. This paper systematically analyzes the extant legal frameworks governing the utilization of space technology for wildlife conservation and biodiversity protection, identifying critical gaps and proposing normative refinements necessary for effective and equitable application. It evaluates how current international space law, designed for a nascent space age, grapples with the dual-use nature of satellite technologies that can both advance conservation efforts and introduce novel environmental externalities, such as light pollution impacting wildlife and astronomical observations (Yavuz, 2024). This study scrutinizes the governance of space technologies for wildlife conservation under prevailing legal frameworks, particularly assessing the adequacy of international space law in accommodating terrestrial environmental objectives. Seminal agreements—including the 1967 Outer Space Treaty, the Principles Relating to Remote Sensing of the Earth from Outer Space, and the Liability Convention—articulate overarching principles of peaceful utilization, state accountability, and international collaboration. Nevertheless, these instruments, predating modern conservation priorities, furnish only rudimentary orientation on pivotal concerns such as data stewardship, sovereignty over ecological intelligence, private sector engagement, and protections for indigenous and local communities subject to satellite surveillance. Moreover, the evolving landscape of Space 4.0, characterized by increasingly complex satellite mega-constellations and commercial ventures, introduces further legal uncertainties regarding orbital debris, frequency allocation, and the equitable distribution of environmental data benefits (Bohlmann & Petrovici, 2019). Employing a doctrinal and comparative legal methodology, this study examines the manner in which prominent spacefaring nations have implemented these international principles via domestic and regional legal frameworks. It assesses the United States' open data policies under NASA and NOAA, alongside the European Union's Copernicus Programme and Sentinel missions overseen by the European Space Agency, elucidating the legal provisions that facilitate satellite data utilisation for biodiversity monitoring, climate evaluation, and measures against illegal logging, poaching, and habitat destruction. Empirical case studies—such as tracking elephant migrations across Africa, monitoring Amazonian deforestation, and detecting Emperor Penguin colonies in Antarctica—illustrate the substantive conservation benefits derived from space-based observational systems. However, the efficacy of these technologies is often contingent upon robust regulatory frameworks that address data accessibility, privacy concerns, and potential dual-use implications (Sauls et al., 2023) This necessitates an in-depth examination of the international and national legal instruments that govern Earth observation data, particularly those delineated within the UN Principles on Remote Sensing (Langston, 2011). The paper additionally investigates emerging legal challenges, encompassing issues of state sovereignty, data ownership, ethical surveillance practices, and the incorporation of space-derived data into national conservation enforcement mechanisms. It contends that, although space technologies markedly augment conservation capacities, their oversight remains fragmented across disparate legal regimes, thereby engendering normative gaps that threaten both environmental protection and international cooperation. This fragmentation is particularly evident in the context of mega-constellations, where the increasing risks of orbital collision and space debris pose significant threats to the long-term sustainability of space activities, despite their potential for environmental monitoring (Abbas, 2025; (Chulalongkorn) et al., 2021). In conclusion, this study champions a unified legal framework that integrates international space law with biodiversity management regimes. It recommends harmonizing space law instruments with pivotal environmental accords, including the Convention on Biological Diversity, the Convention on International Trade in Endangered Species of Wild Fauna and Flora, and the Sustainable Development Goals—particularly Target 15 on Life on Land. By reframing space technologies as a communal instrument of ecological stewardship, the paper advances the discourse on the sustainable and accountable exploitation of outer space to protect terrestrial biodiversity. This proposed framework aims to address algorithmic biases, disparate data access, and the integration of community-driven monitoring, which are crucial for effective environmental governance and achieving global sustainability goals (Zhidebayeva et al., 2025). Furthermore, this necessitates a critical examination of how artificial intelligence techniques, increasingly integrated with satellite data for environmental protection, can be ethically and legally governed to prevent misuse and ensure data privacy (Al-Hammouri et al., 2024; Layode et al., 2024)

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Published

2026-05-05