Decontamination of Subsurface Water Resources System using Contemporary Technologies provides a comprehensive approach to addressing the decontamination of subsurface water resources. It covers field experimentations, modelling strategies, remote-sensing methods, and the application of artificial intelligence.
This broad coverage ensures that readers gain a well-rounded understanding of the topic. Purchasing this book offers a unique opportunity to access up-to-date, comprehensive, and scientifically grounded insights into subsurface water decontamination. This book will inform the student, researcher, policymaker, or industry practitioner and contribute to positive change in the field of water resource management.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xiii 7. About the editors - p. xv 8. Foreword - p. xvii 9. Preface - p. xix 10. Section I: Emerging pollutants in subsurface water resource systems - p. 1 11. Chapter 1. Fate and transport of emerging contaminants in the vadose zone - p. 3 12. Chapter 2. Emerging contaminants and their behavior in aquifer systems - p. 17 13. Chapter 3. Colloid-facilitated contaminant transport through subsurface porous media - p. 31 14. Chapter 4. Research on migration characteristics of CML colloid cotransported carcinogenic Cr(VI) in a two-phase porous medium incorporating a probabilistic human health risk assessment - p. 39 15. Section II: Remediation technologies for contaminated subsurface water resource systems - p. 59 16. Chapter 5. Phytoremediation for extraction of heavy metal from contaminated soil - p. 61 17. Chapter 6. Bioremediation strategies for vadose zone contaminant cleanup - p. 83 18. Chapter 7. An overview of cost analysis of in situ remediation technologies for subsurface management - p. 97 19. Chapter 8. Electrocoagulation treatment of landfill leachate: influence of electrodes and characteristics - p. 115 20. Chapter 9. Remediation strategies for heavy metal contamination in soil - p. 123 21. Chapter 10. Field scale remediation technologies for vadose zone contaminated with chromium contaminants - p. 131 22. Section III: Case study on groundwater assessment and contaminant transport - p. 143 23. Chapter 11. Soil–water contamination at COPR sites and in adjoining agricultural lands: remediation strategies and practices - p. 145 24. Chapter 12. Estimation of surface and groundwater interaction by stable isotopic techniques—a case study on Chengalpattu district—IT corridor - p. 153 25. Chapter 13. Assessment of groundwater vulnerability of the Rupnagar block, Punjab, India using the DRASTIC-LUH model and electrical resistivity tomography - p. 165 26. Chapter 14. Subsurface investigation for groundwater resource assessment: a case study of Dehola village, Haryana, India - p. 183 27. Chapter 15. Identification of the best yield point for groundwater using the electrical resistivity tomography method - p. 193 28. Chapter 16. Fuzzy logic decision support system for in situ remediation of contaminated aquifer - p. 203 29. Chapter 17. Response of groundwater to dry and wet rainfall spells in different climatic zones of India - p. 213 30. Chapter 18. Geospatial assessment of groundwater quality using water quality index - p. 233 31. Chapter 19. Water quality assessment of springshed of outer Himalaya's foothills: a case study from Uttarakhand - p. 243 32. Chapter 20. Global collocation-based meshfree simulation model for groundwater contaminant transport - p. 253 33. Section IV: Policies framework for subsurface water resource management - p. 261 34. Chapter 21. Policy framework to control subsurface contamination - p. 263 35. Chapter 22. Constitutional laws for subsurface water pollution - p. 271 36. Chapter 23. Public participation to manage a contaminated aquifer - p. 281 37. Chapter 24. Aquifer management for achieving various objectives of sustainable development goals - p. 289 38. Author Index - p. 297 39. Subject Index - p. 305
Decontamination of Subsurface Water Resources System using Contemporary Technologies provides a comprehensive approach to addressing the decontamination of subsurface water resources. It covers field experimentations, modelling strategies, remote-sensing methods, and the application of artificial intelligence.
This broad coverage ensures that readers gain a well-rounded understanding of the topic. Purchasing this book offers a unique opportunity to access up-to-date, comprehensive, and scientifically grounded insights into subsurface water decontamination. This book will inform the student, researcher, policymaker, or industry practitioner and contribute to positive change in the field of water resource management.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xiii 7. About the editors - p. xv 8. Foreword - p. xvii 9. Preface - p. xix 10. Section I: Emerging pollutants in subsurface water resource systems - p. 1 11. Chapter 1. Fate and transport of emerging contaminants in the vadose zone - p. 3 12. Chapter 2. Emerging contaminants and their behavior in aquifer systems - p. 17 13. Chapter 3. Colloid-facilitated contaminant transport through subsurface porous media - p. 31 14. Chapter 4. Research on migration characteristics of CML colloid cotransported carcinogenic Cr(VI) in a two-phase porous medium incorporating a probabilistic human health risk assessment - p. 39 15. Section II: Remediation technologies for contaminated subsurface water resource systems - p. 59 16. Chapter 5. Phytoremediation for extraction of heavy metal from contaminated soil - p. 61 17. Chapter 6. Bioremediation strategies for vadose zone contaminant cleanup - p. 83 18. Chapter 7. An overview of cost analysis of in situ remediation technologies for subsurface management - p. 97 19. Chapter 8. Electrocoagulation treatment of landfill leachate: influence of electrodes and characteristics - p. 115 20. Chapter 9. Remediation strategies for heavy metal contamination in soil - p. 123 21. Chapter 10. Field scale remediation technologies for vadose zone contaminated with chromium contaminants - p. 131 22. Section III: Case study on groundwater assessment and contaminant transport - p. 143 23. Chapter 11. Soil–water contamination at COPR sites and in adjoining agricultural lands: remediation strategies and practices - p. 145 24. Chapter 12. Estimation of surface and groundwater interaction by stable isotopic techniques—a case study on Chengalpattu district—IT corridor - p. 153 25. Chapter 13. Assessment of groundwater vulnerability of the Rupnagar block, Punjab, India using the DRASTIC-LUH model and electrical resistivity tomography - p. 165 26. Chapter 14. Subsurface investigation for groundwater resource assessment: a case study of Dehola village, Haryana, India - p. 183 27. Chapter 15. Identification of the best yield point for groundwater using the electrical resistivity tomography method - p. 193 28. Chapter 16. Fuzzy logic decision support system for in situ remediation of contaminated aquifer - p. 203 29. Chapter 17. Response of groundwater to dry and wet rainfall spells in different climatic zones of India - p. 213 30. Chapter 18. Geospatial assessment of groundwater quality using water quality index - p. 233 31. Chapter 19. Water quality assessment of springshed of outer Himalaya's foothills: a case study from Uttarakhand - p. 243 32. Chapter 20. Global collocation-based meshfree simulation model for groundwater contaminant transport - p. 253 33. Section IV: Policies framework for subsurface water resource management - p. 261 34. Chapter 21. Policy framework to control subsurface contamination - p. 263 35. Chapter 22. Constitutional laws for subsurface water pollution - p. 271 36. Chapter 23. Public participation to manage a contaminated aquifer - p. 281 37. Chapter 24. Aquifer management for achieving various objectives of sustainable development goals - p. 289 38. Author Index - p. 297 39. Subject Index - p. 305
