Hydrosystem Restoration Handbook

Saeid Eslamian received his PhD in Civil and Environmental Engineering from University of New South Wales, Australia in 1998. Saeid was Visiting Professor in Princeton University and ETH Zurich in 2005 and 2008 respectively. He has contributed to more than 1K publications in journals, conferences, books. Eslamian has been appointed as 2-Percent Top Researcher by Stanford University for several years. Currently, he is full professor of Hydrology and Water Resources and Director of Excellence Center in Risk Management and Natural Hazards. Isfahan University of Technology, His scientific interests are Floods, Droughts, Water Reuse, Climate Change Adaptation, Sustainability and ResilienceFaezeh Eslamian is a PhD holder of bioresource engineering from McGill University. Her research focuses on the development of a novel lime-based product to mitigate phosphorus loss from agricultural fields. Faezeh completed her bachelor’s and master’s degrees in civil and environmental engineering from Isfahan University of Technology, Iran, where she evaluated natural and low-cost absorb bents for the removal of pollutants such as textile dyes and heavy metals. Furthermore, she has conducted research on the worldwide water quality standards and wastewater reuse guidelines. Faezeh is an experienced multidisciplinary researcher with research interests in soil and water quality, environmental remediation, water reuse, and drought management.

• Part I: Foundational Concepts and Traditional Techniques1. Water Harvesting Systems and Groundwater Artificial Recharge with Conventional Water2. Three-R: Recharge, Retention and Reuse of Water3. Comparison of Water and Flood Spreading Area Against Non-Spreading and Control Area using Remote Sensing, GIS and Statistical AnalysisPart II: Case Studies and Regional Applications4. Identification and Assessment of Artificial Groundwater Recharge Potential Zones-A Case Study in the Mitidja Plain, North Algeria5. The Long-Term Variability of Hydrological Characteristics of Lake Baikal and Its Tributaries Under Climate Change and Anthropogenic Impact6. Understanding the Water Scenario in India7. Traditional Groundwater Recharge Techniques in India8. The Role of Non-State actors in Groundwater Artificial Recharge with Conventional Water-Based Watershed Development Programmes in India: A case studyPart III: Planning and Management Strategies9. Groundwater Artificial Recharge with Conventional Water Management and Sustainability10. Planning Various Groundwater Artificial Recharge with Conventional Water Schemes11. Water Resources Restoration as a Robust Tool for Poverty Reduction and Promoting Welfare12. Groundwater Resources Restoration: A Green Technology Approach13. Artificial Groundwater Recharge for Water Banking14. Rainwater Harvesting and Groundwater RechargePart IV: Methodological Innovations and Advanced Techniques15. Methodological Survey for the Estimation of Groundwater Artificial Recharge16. Conceptual Modeling of Groundwater Artificial Recharge with Conventional Water17. Machine Learning Techniques for the Estimation of Groundwater Artificial Recharge by Conventional Water18. Water Productivity Enhancement using Groundwater Artificial Recharge with Conventional Water19. Classification Methods for Ranking the Appropriate Locations for Groundwater Artificial Recharge with Conventional WaterPart V: Future Trends and Emerging Technologies20. Underground Dam Theory and Application21. Future Trends in Groundwater Artificial Recharge with Conventional Water