Contemporary Hydrogeology

1 - Front Cover [Seite 1]
2 - Contemporary Hydrogeology [Seite 6]
3 - Copyright Page [Seite 7]
4 - Contents [Seite 16]
5 - Dedication [Seite 8]
6 - Prefaces [Seite 9]
6.1 - William Back (Reston, Va., U.S.A.) and D.A. Stephenson (Madison, Wis., U.S.A.) [Seite 9]
6.2 - Keros Cartwright, Chairman, Hydrogeology Division, Geological Society of America (Urbana, Ill., U.S.A.) [Seite 9]
7 - Forewords [Seite 10]
7.1 - Harold E. Thomas (Woodside, Calif., U.S.A.) and Hugh A. Shamberger (Carson City, Nev., U.S.A.) [Seite 10]
7.2 - Burke's academic activities Ven Te Chow (Urbana, Ill., U.S.A.) [Seite 12]
8 - Chapter 1. The Meinzer era of U.S. hydrogeology, 1910-1940 [Seite 18]
9 - Section I: Hydrologic Modeling and Groundwater Flow Systems [Seite 24]
9.1 - Chapter 2. Hydrogeology of glacial-terrain lakes, with management and planning applications [Seite 24]
9.2 - Chapter 3. The role of groundwater in storm runoff [Seite 62]
9.3 - Chapter 4. Hydraulic potential in Lake Michigan bottom sediments [Seite 84]
9.4 - Chapter 5. Unsteady streamflow modeling guidelines [Seite 96]
9.5 - Chapter 6. Pore size distribution, suction and hysteresis in unsaturated groundwater flow [Seite 116]
9.6 - Chapter 7. Contribution of groundwater modeling to planning [Seite 138]
9.7 - Chapter 8. Application and analysis of a coupled surface and groundwater model [Seite 146]
9.8 - Chapter 9. Progress in analytical groundwater modeling [Seite 166]
9.9 - Chapter 10. Consideration of total energy loss in theory of flow to wells [Seite 178]
9.10 - Chapter 11. Measurement of fluid velocity using temperature profiles: experimental verification [Seite 202]
9.11 - Chapter 12. Utility of a computerized data base for hydrogeologic investigations, Las Vegas Valley, Nevada [Seite 212]
9.12 - Chapter 13. Regional carbonate flow systems in Nevada [Seite 234]
9.13 - Chapter 14. Groundwater flow systems in the western phosphate field in Idaho [Seite 256]
10 - Section II: Geological Aspects of Hydrogeology [Seite 282]
10.1 - Chapter 15. Cooling mechanisms and effects on mantle convection beneath Antarctica [Seite 282]
10.2 - Chapter 16. Major geochemical processes in the evolution of carbonate-aquifer systems [Seite 301]
10.3 - Chapter 17. Effects of karst and geological structure on the circulation of water and permeability in carbonate aquifers [Seite 327]
10.4 - Chapter 18. Evaluation techniques of fractured-rock hydrology [Seite 347]
10.5 - Chapter 19. Secondary permeability as a possible factor in the origin of debris avalanches associated with heavy rainfall [Seite 361]
11 - Section III: Hydrogeochemistry [Seite 369]
11.1 - Chapter 20. Seasonal chemical and isotopic variations of soil CO2 at Trout Creek, Ontario [Seite 369]
11.2 - Chapter 21. Arsenic species as an indicator of redox conditions in groundwater [Seite 387]
11.3 - Chapter 22. Modern marine sediments as a natural analog to the chemically stressed environment of a landfill [Seite 407]
11.4 - Chapter 23. Time-dependent sorption on geological materials [Seite 429]
11.5 - Chapter 24. The volume-averaged mass-transport equation for chemical diagenetic models [Seite 441]
12 - Section IV: Economic Hydrogeology [Seite 453]
12.1 - Chapter 25. Problems of large-scale groundwater development [Seite 453]
12.2 - Chapter 26. The impacts of coal strip mining on the hydrogeologic system of the Northern Great Plains: case study of potential impacts on the Northern Cheyenne Reservation [Seite 459]
12.3 - Chapter 27. Connector wells, a mechanism for water management in the Central Florida Phosphate District [Seite 483]
12.4 - Chapter 28. Simulated changes in potentiometric levels resulting from groundwater development for phosphate mines, west-central Florida [Seite 505]
12.5 - Chapter 29. Depressurization of a multi-layered artesian system for water and grout control during deep mine-shaft development [Seite 531]
12.6 - Chapter 30. Geothermal well testing [Seite 551]
13 - Section V: Epilogue [Seite 569]
13.1 - Chapter 31. Groundwater: new directions -Where we've been and where we're going [Seite 569]