Global Groundwater

<p>1. Global groundwater: from scarcity to security through sustainability and solutions</p> <p>2. Groundwater of carbonate aquifers</p> <p>3. Groundwater resources in Australia—their occurrence, management, and future challenges</p> <p>4. Groundwater storage dynamics in the Himalayan river basins and impacts of global change in the Anthropocene</p> <p>5. Groundwater variations in the North China Plain: monitoring and modeling under climate change and human activities toward better groundwater sustainability</p> <p>6. Emerging groundwater and surface water trends in Alberta, Canada</p> <p>7. Groundwater irrigation and implication in the Nile river basin</p> <p>8. Groundwater availability and security in the Kingston Basin, Jamaica</p> <p>9. Transboundary aquifers: a shared subsurface asset, in urgent need of sound governance</p> <p>10. Transboundary groundwater of the Ganges—<br> <p>11. Groundwater drought: environmental controls and monitoring</p> <p>12. Groundwater scarcity in the Middle East</p> <p>13. Groundwater scarcity and management in the arid areas in East Africa</p> <p>14. Global geogenic groundwater pollution</p> <p>15. Out of sight, but not out of mind: per- and polyfluoroalkyl substances in groundwater</p> <p>16. Geogenic-contaminated groundwater in China</p> <p>17. Screening of emerging organic pollutants in the typical hygrogeological units of China</p> <p>18. Groundwater pollution of Pearl River Delta</p> <p>19. Hydrochemical characteristics and quality assessment of water from different sources in Northern Morocco</p> <p>20. Arsenic in groundwater in the United States: research highlights since 2000, current concerns and next steps</p> <p>21. Hydrogeochemical characterization of groundwater quality in the states of Texas and Florida, United States</p> <p>22. Groundwater pollution in Pakistan</p> <p>23. Groundwater of Afghanistan (potential capacity, scarcity, security issues, and solutions)</p> <p>24. Groundwater resources sustainability</p> <p>25. Sustainability of groundwater used in agricultural production and trade</p> <p>26. Groundwater and society: enmeshed issues, interdisciplinary approaches</p> <p>27. Groundwater sustainability in cold and arid regions</p> <p>28. Groundwater in Australia—understanding the challenges of its sustainable use</p> <p>29. Groundwater recharge and sustainability in Brazil</p> <p>30. Groundwater management in Brazil: current status and challenges for sustainable utilization</p> <p>31. Challenges of sustainable groundwater development and management in Bangladesh: vision 2050</p> <p>32. Integrating groundwater for water security in Cape Town, South Africa</p> <p>33. Drivers for progress in groundwater management in Lao People’s Democratic Republic</p> <p>34. Groundwater sustainability and security in South Asia</p> <p>35. Role of measuring the aquifers for sustainably managing groundwater resource in India</p> <p>36. Balancing livelihoods and environment: political economy of groundwater irrigation in India</p> <p>37. The future of groundwater science and research</p> <p>38. Technologies to enhance sustainable groundwater use</p> <p>39. Applications of Gravity Recovery and Climate Experiment in global groundwater study</p> <p>40. Use of machine-learning and deep-learning methods in groundwater</p> <p>41. Desalination of brackish groundwater to improve water quality and water supply</p> <p>42. Desalination of deep groundwater for freshwater supplies</p> <p>43. Quantifying future water environment using numerical simulations: a scenario-based approach for sustainable groundwater management plan in Medan, Indonesia</p> <p>44. Managed aquifer recharge with various water sources for irrigation and domestic use: a perspective of the Israeli experience</p> <p>45. MAR model: a blessing adaptation for hard-to-reach livelihood in thirsty Barind Tract, Bangladesh</p>