Remote-Sensing-Driven Monitoring and Change Analysis of Earth Surface Processes: A Comprehensive Analytical Framework
DOI:
https://doi.org/10.71465/jgs44Keywords:
Remote Sensing, Change Detection, Surface Processes, Time-Series AnalysisAbstract
The continuous monitoring and analysis of Earth surface processes are fundamental to understanding the complex interactions between anthropogenic activities and natural environmental changes. This comprehensive academic paper explores the theoretical foundations, methodological advancements, and practical applications of remote-sensing-driven analytical frameworks for surface process monitoring. By leveraging multi-temporal, multi-spatial, and multi-spectral satellite imagery, researchers have developed robust methodologies to track land cover transformations, ecological degradation, and cryospheric dynamics. This paper systematically reviews the evolution of Earth observation platforms, detailing the transition from coarse-resolution, single-sensor analyses to high-resolution, multi-sensor fusion paradigms. Furthermore, the discussion provides an extensive examination of contemporary change detection algorithms, emphasizing the integration of time-series analysis and machine learning architectures. Through detailed thematic explorations of urbanization, agricultural phenology, and ecological responses to climate change, the paper evaluates the performance, limitations, and future trajectories of remote sensing applications. The overarching objective is to synthesize current methodologies into a cohesive analytical framework that researchers and policymakers can utilize to derive actionable environmental intelligence. Ultimately, this research underscores the indispensable role of satellite-derived data in fostering sustainable land management and mitigating the impacts of global environmental change.
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Copyright (c) 2026 Noah Nordin, Noah Castillo, Noah Baines (Author)

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