Reprint

Remote Sensing and Artificial Intelligence in Inland Waters Monitoring

Edited by
March 2024
294 pages
  • ISBN978-3-7258-0573-0 (Hardback)
  • ISBN978-3-7258-0574-7 (PDF)

This book is a reprint of the Special Issue Remote Sensing and Artificial Intelligence in Inland Waters Monitoring that was published in

Engineering
Environmental & Earth Sciences
Summary

Water, vital for life, confronts unprecedented challenges in aquatic ecosystems due to factors like scarcity and pollution. Monitoring at local to global scales is vital for effective management, aligning with sustainable development goals. To address these challenges, the integration of remote sensing technologies with in situ data proves invaluable in unveiling the spatial distribution and dynamic variations in water quality and quantity. Leveraging the advantages of frequent data acquisition, expansive coverage, and diverse sensor types, coupled with the power of artificial intelligence and cloud computing, enables a profound understanding of intricate changes within aquatic environments. This Special Issue is dedicated to showcasing papers that elucidate strategies for enhancing inland water monitoring, emphasizing precision, frequency, and the augmentation of user value derived from remote sensing data. Specifically, the issue aims to spotlight ongoing research leveraging satellite imagery, UAV data, in situ instrumentation, GeoAI, as well as deep and machine learning algorithms. Additionally, cloud computing and big data processing applications are explored to comprehensively comprehend the existing state and proactively mitigate the deterioration of water resources. Encompassing a broad spectrum, topics include remote sensing monitoring of water quality parameters, artificial intelligence, GeoAI applications and time-series analysis techniques.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
remote sensing; water quality; harmonize RS data; machine learning; global modeling; remote sensing; water quality; model development; linear regression; LASSO regularization; L1; coincident data; Google Earth Engine; cyanobacteria; unmanned aerial systems; water quality; multispectral imagery; machine learning classification; inland water; multi-source satellite observation technology; scientometrics; CiteSpace; few-shot learning; underwater aquatic vegetation; submerged vegetation; foundation model; machine learning; Sentinel-2; VHR; WorldView-2; UAV; Segment Anything model; machine learning; water quality parameters; spatiotemporal distribution; Dianshan Lake; Sentinel-2; Sentinel-1; water extraction; flood disaster; decision tree; random forest; improved U-Net; machine learning; deep learning; hyperspectral imagery; PRISMA satellite; Chlorophyll-a; water quality; lakes eutrophication; machine learning algorithms; in situ water quality data; lakes; Landsat-8; Sentinel-2; CMIP6; BCSD; PLUS; MOP; flood risk assessment; multi-scenario simulation; climate change; water quality monitoring; Artificial Neural Network (ANN); artificial intelligence; WISE; sustainable water management; water quality; lakes; remote sensing; Sentinel-2; artificial intelligence; machine learning; genetic algorithm; Extreme Gradient Boosting (XGBoost); water monitoring