AI for Biodiversity Conservation and Ecosystem Monitoring
DOI:
https://doi.org/10.5281/zenodo.15172625Keywords:
deep neural networks, remote sensing, biodiversity monitoringAbstract
In this study, I propose a novel AI-driven method for tracking the correct and rapid transformation of the ecosystem by utilizing the strengths of remote sensing data. I apply deep neural network models and convolutional neural networks to process high-resolution satellite images for self-driven and precise detection of the most significant ecological transformations like deforestation and habitat fragmentation. This research demonstrates the high potential of AI to enable timely and accurate assessment of such changes beyond the limitations of the traditional approach. This approach offers a highly scalable and cost-effective method for monitoring large-scale environmental changes that are crucial for effective biodiversity conservation and sustainable land use management. By providing informative, actionable information, this strategy enables evidence-based conservation planning and policy that eventually leads to the conservation of vital ecosystems and less biodiversity loss. The results underscore the necessity for the integration of AI in ecological monitoring to ensure maximum sustainability programs.
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