Buch, Englisch, Format (B × H): 152 mm x 229 mm
From Algorithms to Real-World Applications
Buch, Englisch, Format (B × H): 152 mm x 229 mm
ISBN: 978-0-443-49320-1
Verlag: Elsevier Science & Technology
GeoAI for Remote Sensing: From Algorithms to Real-World Applications offers a structured, interdisciplinary resource bridging foundational GeoAI concepts with multisensor fusion and domain-specific applications. It targets advanced students, researchers, and professionals seeking scalable, platform-agnostic workflows and reproducible methods for agriculture, climate, hydrology, urbanism, and hazards. The book emphasizes practical pipelines, code, and case studies anchored in real-world problems, with an emphasis on transparency, ethics, and open science. The content is organized into four parts: Foundations and Methods (data ecosystems, cloud platforms, and basic AI techniques), GeoAI Algorithms and Data Analysis (multisensor fusion, transformer architectures, data-driven modeling), Real-World Applications (deforestation, water resources, urban monitoring, health and environment), and Challenges and Future Directions (ethics, governance, and open-source tooling). Each chapter blends theory with hands-on workflows, teaching objectives, practical implementations, and reproducible outputs, including a public companion repository with notebooks and data resources. Readers will gain a cohesive framework for translating GeoAI methods into actionable insights across sectors and scales, from local to global. They will leave equipped to design, evaluate, and deploy GeoAI solutions that support sustainable resource management, resilient infrastructure, and informed decision-making in policy and industry.
Autoren/Hrsg.
Fachgebiete
Weitere Infos & Material
Section 1: Core Concepts and Foundational Advances
1. Introduction to GeoAI and Foundations in Remote Sensing
2. Remote Sensing Data Sources in the AI Era: Optical, Hyperspectral, LiDAR, and SAR
3. Google Earth Engine and Cloud Platforms for Scalable GeoAI Applications in Earth Observation
4. XAI in Geospatial Applications: Building Trust and Interpretability in Remote Sensing Models
5. GeoAI for Smart Cities: Urban Analytics, Planning, and Resilience Using Remote Sensing
Section 2: GeoAI Algorithms and Data Analysis
6. IoT-Integrated GeoAI Framework for Monitoring and Predictions Analysis
7. GeoAI-Based Prediction Analysis: Insights from LiDAR 3D Point Clouds
8. GeoAI in Land Use and Land Cover Classification Using Remote Sensing Data
9. Cross-Modal GeoAI Transformer Network for Unified Tree Segmentation from Airborne, Mobile, and Terrestrial LiDAR
10. GeoAI with Machine/Deep Learning for Glacier Ice Volume Estimation
11. Data Fusion in GeoAI: Integrating Multispectral, Hyperspectral, and Multimodal Sources
Section 3: Real-world Applications/Case Studies of GeoAI
12. GeoAI-Based Polarimetric Scattering Signature Development for Sustainable Horticulture Monitoring in India
13. GeoAI-based Deep Learning in Snow Cover Estimation over the Western Himalayas
14. Improved Multimodal GeoAI Framework for Water Stress Detection and Irrigation Advisory with Satellite Observations
15. GeoAI-Driven Landslide Early Warning System for Improved Prediction Accuracy and Timeliness
16. GeoAI for Biomass Estimation and Sustainable Forest Fire Assessment Using Multisensory Remote Sensing
17. GeoAI-Enhanced Air Quality Forecasting in the Himalayas Using Machine Learning and Data Assimilation
18. GeoAI in Health Applications: Mapping Pollution, Disease Outbreaks, and Public Health with Earth Observation Data
Section 4: Challenges, Limitations and Future Directions
19. GeoAI for Integrated Hydrological Modeling: Recent Advances and Future Directions
20. Big Earth Data Challenges: Scalability, Cloud Computing, and Edge AI
21. Ethical, Legal, and Societal Implications of GeoAI in Remote Sensing
22. Open-Source Libraries and Cloud Computing for GeoAI
23. Challenges, Limitations, and Future Directions in GeoAI for achieving Sustainable Development Goals




