Transdisciplinary Ecohydrology: Advanced Nature Based Solutions for the Enhancement of Catchment Sustainability Potential, a volume in the reputable book series, Transdisciplinary Ecohydrology: Advanced Nature Based Solutions for the Enhancement of Catchment Sustainability Potential, delves into the intricate and dynamic interplay between hydrological and ecological processes. By introducing fundamental water/biota interactions, this book provides a comprehensive framework for developing innovative Nature-Based Solutions (NBS) aimed at mitigating human impact and enhancing catchment resilience. Sections cover both terrestrial and aquatic phases of the hydrological cycle, offering insights into water-plants-soil interactions, ecotone processes, floodplain dynamics, river continuum processes, and coastal zone interactions.
The book further explores the development of Advanced Nature-Based Solutions (ANBS) enhanced by molecular biology and biotechnology that are tailored to various catchments with different climates, geologies, and urbanization levels. It also discusses the harmonization of NBS with hydrotechnical infrastructure to create efficient and cost-effective hybrid systems. This necessary guide integrates hydroengineering, ANBS, and hybrid systems and presents a thorough approach for sustainable water management, making it an essential resource for researchers, practitioners, and policymakers committed to achieving a greener future.
1. Chapter 1. Introduction: Water as a key driver of sustainability - p. 3 2. Chapter 2. Origins of transdisciplinary ecohydrology: Theoretical framework - p. 33 3. Chapter 3. Deductive framework for transdisciplinary ecohydrology - p. 47 4. Chapter 4. The role of abiotic and biotic factors in regulating ecosystem processes - p. 59 5. Chapter 5. Empirical testing as a framework for optimizing river basin restoration - p. 71 6. Chapter 6. Dual regulation inductive framework for transdisciplinary ecohydrology - p. 107 7. Chapter 7. Principles of transdisciplinary ecohydrology: System-based solutions for water management - p. 115 8. Chapter 8. Methodology of transdisciplinary ecohydrology - p. 131 9. Chapter 9. Foresight: A necessity for a sustainable future - p. 141 10. Chapter 10. Linking catchment and floodplain dynamics for climate-resilient river landscapes: An ecohydrological approach - p. 149 11. Chapter 11. How to manage water cycle at the watershed scale - p. 161 12. Part II. Implementation - p. P2 13. Chapter 12. Ecohydrological quantification of factors affecting nutrient loads to the Baltic Sea and sustainable management of its drainage basin - p. 181 14. Chapter 13. Municipal wastewater as a vector of environmental contaminants - p. 195 15. Chapter 14. Enhancement of lowland reservoirs through ecohydrological catchment management—Case study: Sulejów reservoir - p. 207 16. Chapter 15. Biomanipulation and hydrobiomanipulation - p. 225 17. Chapter 16. Application of hydroacoustic methods in ecohydrology - p. 231 18. Chapter 17. Hybrid sequential biofiltration system (HSBS) for small wastewater treatment plants: An innovative ecohydrological technology - p. 243 19. Chapter 18. Climate change, eutrophication, and cyanobacterial harmful algal blooms (CyanoHABs) - p. 249 20. Chapter 19. Microorganisms in ecohydrological solutions for reducing cyanobacterial harmful algal bloom (CyanoHAB) - p. 257 21. Chapter 20. Application of ecohydrology for the pesticides impact mitigation - p. 265 22. Chapter 21. Biological remediation methods as effective tools for micropollutants removal and protection of land–water ecosystems - p. 273 23. Chapter 22. Denitrification barriers for reducing nitrogen pollution in agricultural landscapes - p. 283 24. Chapter 23. Reversing lake eutrophication by sequential sedimentation biofiltration system - p. 289 25. Chapter 24. Microorganisms as activators, regulators, and bioindicators of ecosystems - p. 295 26. Chapter 25. Smart blue–green city of the future - p. 305 27. Chapter 26. Advanced Nature-based Solutions for sustainable and resilient city (WBSR) - p. 319 28. Chapter 27. Road salt application and freshwater eutrophication: An ecohydrological perspective - p. 329 29. Chapter 28. Ecohydrological adaptation of inland waterways for enhancing multidimensional sustainability potential (WBSR) - p. 335 30. Chapter 29. Lateral reservoirs for enhancing river valley sustainability and climate change adaptation - p. 341 31. Part III. Transdisciplinary ecohydrology in the world - p. P3 32. Chapter 30. “How to make three omelettes with just one egg?”—Threefold resource-limitation of riverine habitat dynamics and possible ecohydrological solutions (the Loire River as a case study) - p. 349 33. Chapter 31. Ecohydrological solutions in the catchment area of Lake Naivasha - p. 363 34. Chapter 32. Transdisciplinary ecohydrology for reduction of soil erosion, stream self-purification and Tilapia aquaculture development in Ethiopia - p. 369 35. Chapter 33. Transdisciplinary and ecohydrological solutions for integrated watershed and water resources management: Case studies from Brazil - p. 377 36. Chapter 34. Ecohydrological approaches to assessing environmental flow in rivers: Focus on hydrological methods - p. 391 37. Chapter 35. Integrating ecohydrology and cultural heritage: Lessons from the Paltas–Catacocha demonstration site - p. 415 38. Chapter 36. Enhancing sustainable water resources management and ecosystem services at the Saguling reservoir, West Java (ecohydrology demonstration site) - p. 429 39. Chapter 37. Reimagining urban green spaces: Integrating functionality and aesthetic experience - p. 445 40. Chapter 38. Ecohydrology based landscape restoration - p. 455 41. Chapter 39. Theoretical basis for implementing the principles of ecohydrology in a tropical catchment - p. 467 42. Chapter 40. Hydronexialism—A didactic concept to teach complex problem-solving within the framework of transdisciplinary ecohydrology - p. 479 43. Part IV. Transdisciplinary ecohydrology: A way forward - p. P4 44. Chapter 41. Creating a culture of sustainability through transdisciplinary ecohydrology - p. 495 45. Chapter 42. Transdisciplinary ecohydrology: A summary - p. 501 46. Part V. Glossary and bibliography - p. rP1 47. Ecohydrology and UNESCO’s Intergovernmental Hydrological Program—past, present, and the future - p. 515 48. Glossary - p. 519 49. Literature - p. 529 50. Index - p. 539
Transdisciplinary Ecohydrology: Advanced Nature Based Solutions for the Enhancement of Catchment Sustainability Potential, a volume in the reputable book series, Transdisciplinary Ecohydrology: Advanced Nature Based Solutions for the Enhancement of Catchment Sustainability Potential, delves into the intricate and dynamic interplay between hydrological and ecological processes. By introducing fundamental water/biota interactions, this book provides a comprehensive framework for developing innovative Nature-Based Solutions (NBS) aimed at mitigating human impact and enhancing catchment resilience. Sections cover both terrestrial and aquatic phases of the hydrological cycle, offering insights into water-plants-soil interactions, ecotone processes, floodplain dynamics, river continuum processes, and coastal zone interactions.
The book further explores the development of Advanced Nature-Based Solutions (ANBS) enhanced by molecular biology and biotechnology that are tailored to various catchments with different climates, geologies, and urbanization levels. It also discusses the harmonization of NBS with hydrotechnical infrastructure to create efficient and cost-effective hybrid systems. This necessary guide integrates hydroengineering, ANBS, and hybrid systems and presents a thorough approach for sustainable water management, making it an essential resource for researchers, practitioners, and policymakers committed to achieving a greener future.
1. Chapter 1. Introduction: Water as a key driver of sustainability - p. 3 2. Chapter 2. Origins of transdisciplinary ecohydrology: Theoretical framework - p. 33 3. Chapter 3. Deductive framework for transdisciplinary ecohydrology - p. 47 4. Chapter 4. The role of abiotic and biotic factors in regulating ecosystem processes - p. 59 5. Chapter 5. Empirical testing as a framework for optimizing river basin restoration - p. 71 6. Chapter 6. Dual regulation inductive framework for transdisciplinary ecohydrology - p. 107 7. Chapter 7. Principles of transdisciplinary ecohydrology: System-based solutions for water management - p. 115 8. Chapter 8. Methodology of transdisciplinary ecohydrology - p. 131 9. Chapter 9. Foresight: A necessity for a sustainable future - p. 141 10. Chapter 10. Linking catchment and floodplain dynamics for climate-resilient river landscapes: An ecohydrological approach - p. 149 11. Chapter 11. How to manage water cycle at the watershed scale - p. 161 12. Part II. Implementation - p. P2 13. Chapter 12. Ecohydrological quantification of factors affecting nutrient loads to the Baltic Sea and sustainable management of its drainage basin - p. 181 14. Chapter 13. Municipal wastewater as a vector of environmental contaminants - p. 195 15. Chapter 14. Enhancement of lowland reservoirs through ecohydrological catchment management—Case study: Sulejów reservoir - p. 207 16. Chapter 15. Biomanipulation and hydrobiomanipulation - p. 225 17. Chapter 16. Application of hydroacoustic methods in ecohydrology - p. 231 18. Chapter 17. Hybrid sequential biofiltration system (HSBS) for small wastewater treatment plants: An innovative ecohydrological technology - p. 243 19. Chapter 18. Climate change, eutrophication, and cyanobacterial harmful algal blooms (CyanoHABs) - p. 249 20. Chapter 19. Microorganisms in ecohydrological solutions for reducing cyanobacterial harmful algal bloom (CyanoHAB) - p. 257 21. Chapter 20. Application of ecohydrology for the pesticides impact mitigation - p. 265 22. Chapter 21. Biological remediation methods as effective tools for micropollutants removal and protection of land–water ecosystems - p. 273 23. Chapter 22. Denitrification barriers for reducing nitrogen pollution in agricultural landscapes - p. 283 24. Chapter 23. Reversing lake eutrophication by sequential sedimentation biofiltration system - p. 289 25. Chapter 24. Microorganisms as activators, regulators, and bioindicators of ecosystems - p. 295 26. Chapter 25. Smart blue–green city of the future - p. 305 27. Chapter 26. Advanced Nature-based Solutions for sustainable and resilient city (WBSR) - p. 319 28. Chapter 27. Road salt application and freshwater eutrophication: An ecohydrological perspective - p. 329 29. Chapter 28. Ecohydrological adaptation of inland waterways for enhancing multidimensional sustainability potential (WBSR) - p. 335 30. Chapter 29. Lateral reservoirs for enhancing river valley sustainability and climate change adaptation - p. 341 31. Part III. Transdisciplinary ecohydrology in the world - p. P3 32. Chapter 30. “How to make three omelettes with just one egg?”—Threefold resource-limitation of riverine habitat dynamics and possible ecohydrological solutions (the Loire River as a case study) - p. 349 33. Chapter 31. Ecohydrological solutions in the catchment area of Lake Naivasha - p. 363 34. Chapter 32. Transdisciplinary ecohydrology for reduction of soil erosion, stream self-purification and Tilapia aquaculture development in Ethiopia - p. 369 35. Chapter 33. Transdisciplinary and ecohydrological solutions for integrated watershed and water resources management: Case studies from Brazil - p. 377 36. Chapter 34. Ecohydrological approaches to assessing environmental flow in rivers: Focus on hydrological methods - p. 391 37. Chapter 35. Integrating ecohydrology and cultural heritage: Lessons from the Paltas–Catacocha demonstration site - p. 415 38. Chapter 36. Enhancing sustainable water resources management and ecosystem services at the Saguling reservoir, West Java (ecohydrology demonstration site) - p. 429 39. Chapter 37. Reimagining urban green spaces: Integrating functionality and aesthetic experience - p. 445 40. Chapter 38. Ecohydrology based landscape restoration - p. 455 41. Chapter 39. Theoretical basis for implementing the principles of ecohydrology in a tropical catchment - p. 467 42. Chapter 40. Hydronexialism—A didactic concept to teach complex problem-solving within the framework of transdisciplinary ecohydrology - p. 479 43. Part IV. Transdisciplinary ecohydrology: A way forward - p. P4 44. Chapter 41. Creating a culture of sustainability through transdisciplinary ecohydrology - p. 495 45. Chapter 42. Transdisciplinary ecohydrology: A summary - p. 501 46. Part V. Glossary and bibliography - p. rP1 47. Ecohydrology and UNESCO’s Intergovernmental Hydrological Program—past, present, and the future - p. 515 48. Glossary - p. 519 49. Literature - p. 529 50. Index - p. 539
