Coupled Thermo-Hydro-Mechanical-Chemical Processes in Geo-systems

Stephansson, Ove; Hudson, John; Jing, Lanru

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Table of contents
  • Contentsxiii
  • Series Prefacev
  • Prefacevii
  • About the Editorsix
  • International and Organizing Committeesxi
  • Part I: Introductory Article1
  • Chapter 1. Coupled THM processes in geological systems and the DECOVALEX project3
  • Part II: Keynote Contributions17
  • Chapter 2. Predicting solute transport in fractured rocks – processes, models and some concerns19
  • Chapter 3. Modelling gas flow through deformable fractured rocks31
  • Chapter 4. Research and application on coupled T-H-M-C processes of geological media in China – A37
  • Chapter 5. Coupled processes and petroleum geomechanics49
  • Chapter 6. Some THMC controls on the evolution of fracture permeability63
  • Chapter 7. Detection of hydraulically created permeable structures in HDR/HWR reservoir by high reso73
  • Chapter 8. Recent study of coupled processes in geotechnical and geoenvironmental fields in China81
  • Theme 1. Coupled T-H-M-C Processes in Radioactive Waste Disposal Systems93
  • Theme 1-1 DECOVALEX III/BENCHPAR Projects- Task 195
  • Chapter 9. The FEBEX benchmark test. Case definition and comparison of different modelling approache95
  • Chapter 10. Modelling the response of the bentonite in the FEBEX heater experiment113
  • Chapter 11. THM simulation of the full-scale in-situ engineered barrier system experiment in Grimsel119
  • Chapter 12. Hydromechanical response of jointed host granitic rock during excavation of the FEBEX tu125
  • Chapter 13. Analyses of coupled hydrological-mechanical effects during drilling of the FEBEX tunnel131
  • Chapter 14. Thermomechanical model for compacted bentonite137
  • Chapter 15. A fully coupled three-dimensional THM analysis of the FEBEX in situ test with the ROCMAS143
  • Chapter 16. A discrete approach to modelling hydromechanical rock response of FEBEX tunnel excavatio149
  • Theme 1-2 DECOVALEX III/BENCHPAR Projects- Task 2155
  • Chapter 17. Measuring thermal, hydrological, mechanical, and chemical responses in the Yucca Mountai155
  • Chapter 18. Analysis of stress and moisture induced changes in fractured rock permeability at the Yu161
  • Chapter 19. Thermal-mechanical modeling of a large-scale heater test167
  • Chapter 20. Numerical simulation of thermal-hydrological processes observed at the Drift-Scale Heate175
  • Chapter 21. THM analysis of a heating test in a fractured tuff181
  • Chapter 22. Comparative analyses of predicted and measured displacements during the heating phase of187
  • Theme 1-3 DECOVALEX III/BENCHPAR Projects- Task 3: BMT1/WP2193
  • Chapter 23. Building confidence in the mathematical models by calibration with a T-H-M field experim193
  • Chapter 24. Numerical simulation of variably coupled thermo-hydro-mechanical processes in fractured199
  • Chapter 25. Numerical implementation of thermally and hydraulically coupled processes in non-isother205
  • Chapter 26. Evaluation of THM coupling on the safety assessment of a nuclear fuel waste repository i211
  • Chapter 27. Evaluation of the impact of thermal-hydrological-mechanical couplings in bentonite and n217
  • Chapter 28. Implications of coupled thermo-hydro-mechanical processes on the safety of a hypothetica225
  • Theme 1-4 DECOVALEXIII/BENCHPAR Projects- Task 3: BMT2/WP3231
  • Chapter 29. Development of a methodology to quantify the importance of hydro-mechanical processes in231
  • Chapter 30. Understanding the impact of hydro-mechanical coupling on performance assessment of deep237
  • Chapter 31. Impact of flow and transport coupling in the upscaling of transport parameters for perfo243
  • Chapter 32. Upscaling the THM properties of a fractured rock mass using a modified crack tensor theo251
  • Chapter 33. Effect of the fracture geometry on the coupled phenomena in large scale257
  • Chapter 34. Upscaling of normal stress-permeability relationships for fracture networks obeying frac251
  • Chapter 35. A block-scale stress-permeability relationship of a fractured rock determined by numeric269
  • Chapter 36. Hydro-mechanical upscaling of a fractured rockmass using a 3D numerical approach275
  • Chapter 37. Thermo-Mechanical effects on hydraulic conductivity in a nuclear waste repository settin281
  • Theme 1-5 DECOVALEX III/BENCHPAR Projects- Task 3: BMT3/WP 4287
  • Chapter 38. A finite-element study of potential coupled hydromechanical effects of glaciation on a c287
  • Chapter 39. Thermo-hydro-mechanical impacts of coupling between glaciers and permafrost293
  • Chapter 40. Thermo-hydro-mechanical (T-H-M) impacts of glaciation and implications for deep geologic299
  • Theme 1-6 Radioactive Waste Disposal – Engineered Barrier Systems305
  • Chapter 41. Temperature influence on the mechanical behaviour of a compacted bentonite305
  • Chapter 42. Impact of in-situ parameters and boundary conditions on the thermal-hydro-mechanical beh311
  • Chapter 43. Analysis of the THMC behaviour of compacted swelling clay for radioactive waste isolatio317
  • Chapter 44. A new mechanistic approach to simulating swelling processes in bentonite materials323
  • Chapter 45. Application of a THM-coupled code to transport processes in a swelling bentonite buffer329
  • Chapter 46. Drying and resaturation of the bentonite barrier in a nuclear waste repository. Analyses335
  • Chapter 47. Fabric changes of a pellet-based bentonite buffer material and their effects on mechanic341
  • Theme 1-7 Radioactive Waste Disposal – Geolosical Barriers and Repositories347
  • Chapter 48. A conceptual and numerical model for thermal-hydrological-chemical processes in the Yucc347
  • Chapter 49. A research program for numerical experiments on the coupled thermo-hydro-mechanical and353
  • Chapter 50. GeoMod - An integrated geoscientific model of the Äspö Hard Rock Laboratory, Sweden359
  • Chapter 51. Prototype code development for numerical experiments on the coupled thermo-hydro-mechani365
  • Chapter 52. Modelling three phase hydro-mechanical coupling in porous media: Application to a real s371
  • Chapter 53. T-H-M modelling of the prototype experiment at Äspö HRL (Sweden)377
  • Theme 1-8 Radioactive Waste Disposal – Fundamentals and Applications383
  • Chapter 54. Interpretation of some in-situ tracer experiments in fractured crystalline rock at Äsp383
  • Chapter 55. The on-going pillar stability experiment at the Aspo Hard Rock Laboratory, Sweden389
  • Chapter 56. Algorithms for parallel FEM modelling of thermo-mechanical phenomena arising from the di395
  • Chapter 57. Thermo-mechanical modeling of a subsurface interim nuclear waste storage: Behaviour in w401
  • Chapter 58. Effect of coupling behavior of the near field on groundwater flow of the far field for g407
  • Chapter 59. Impact of temperature increase on nuclide transport in crystalline rock on the near fiel413
  • Chapter 60. Desiccation and rehumidification effects on the thermohydromechanical behaviour of the C419
  • Chapter 61. Thermo-mechanical simulations of pillar spalling in SKB APSE test by FRACOD425
  • Theme 2. Fundamentals of Modelling Coupled T-H-M-C Processes of Geosystems431
  • Theme 2-1 Fundamentals - Modelling T-H-M-C Process of Geosystems433
  • Chapter 62. T-H-M-C modelling of rock mass behaviour - 1: The purposes, the procedures and the produ433
  • Chapter 63. T-H-M-C modelling of rock mass behaviour - 2: The input data and rock mass partitioning439
  • Chapter 64. Simulation of consolidation and transport processes in clayey rocks445
  • Chapter 65. Verification and validation of a three-dimensional finite-element code for coupled T-H-M451
  • Chapter 66. Water flow and diffusion problem in bentonite: Molecular simulation and homogenization a457
  • Chapter 67. Analysis of the hydraulic interaction between clay buffer and host rock in a large scale465
  • Chapter 68. Modelling groundwater pressure and thermal loading in three-dimensional discontinuous de471
  • Theme 2-2 Fundamentals – Material Characterization and Models477
  • Chapter 69. Penetration-induced pore pressure magnitudes – methods to determine transport paramete477
  • Chapter 70. A double-porosity poroelastic model to relate P-wave attenuation to fluid flow in vuggy483
  • Chapter 71. Thermo-mechanical yielding of a clay489
  • Chapter 72. An elastoplastic damage model for unsaturated argillites495
  • Chapter 73. Study on time-temperature equivalent principle for rocks501
  • Chapter 74. On the significance of hydrodynamic control for radionuclide retention in fractured poro507
  • Theme 2-3 Fundamentals – Mechanics of Fractured and Porous Geological Media513
  • Chapter 75. Fundamental thermodynamic requirements for porous media description513
  • Chapter 76. Modelling contamination of clays523
  • Chapter 77. Dependence of subcritical crack growth in rocks on water vapor pressure529
  • Chapter 78. Thermomechanical modelling of microstructured porous media with inclusions535
  • Chapter 79. Analysis of mechanical and hydraulic properties of cracked structure by the ratio of cra541
  • Chapter 80. Characterizing in the laboratory permeability changes induced by deviatoric stress in cl547
  • Chapter 81. Coupled thermal, hydraulic and mechanical simulation with a theoretical model for swelli553
  • Chapter 82. On the constitutive modelling of thermo-hydro-mechanical coupling in elastic media with559
  • Chapter 83. Simulation of coupled fluid flow and solute transport in a rough fracture565
  • Theme 3. Coupled T-H-M-C processes for Oil/Gas Reservoir Engineering571
  • Chapter 84. Coupled thermo-mechano-chemical processes in shales: The petroleum borehole573
  • Chapter 85. A coupled mechanical-thermal-physico-chemical model for the study of time-dependent well581
  • Chapter 86. Mechanical behaviour of chalk reservoirs: Numerical modelling of water sensitivity effec587
  • Chapter 87. Coupled analysis of sand stability in petroleum wellbores593
  • Chapter 88. Coupled analysis of damage formation around wellbores599
  • Chapter 89. Development of 3D FEM software for two-phase flow and its application to Horonobe natura605
  • Chapter 90. A coupled flow-transport-deformation model for underground coal gasification611
  • Chapter 91. Investigating the relationship between fault permeability and effective stress using co617
  • Chapter 92. Visual numerical simulation of coupled gas leak flow and coal-rock deformation in parall623
  • Chapter 93. A coupled geomechanical-reservoir model for the modelling of coal and gas outbursts629
  • Chapter 94. Application of fluid-solid coupling theory in oil field casing damage forecast635
  • Theme 4. Coupled T-H-M-C Processes for Geothermal Energy Engineering641
  • Chapter 95. Permeability in layered reservoirs: Field examples and models on the effects of hydrofra643
  • Chapter 96. The effect of thermal, chemical, hydrological, and mechanical factors on water/rock inte649
  • Chapter 97. Coupled T (thermal) - H (hydrogical) - C (chemical) process of geothermal alteration, ba655
  • Chapter 98. Supercritical water/rock interactions and generation of artificial geothermal reservoirs661
  • Chapter 99. Coupled THM modeling of the stimulated permeable fractures in the near well at the Soult667
  • Chapter 100. Effect of thermal deformation on fracture permeability in stressed rock masses673
  • Chapter 101. Numerical flow and heat transfer model of the porous-fracturing hydrothermal system of679
  • Chapter 102. Microcrack formation and fracture characteristics in granite under supercritical water685
  • Chapter 103. Estimation of critical pore pressure for shear slip of fractures at the Soultz Hot Dry691
  • Theme 5. Coupled T-H-M-C Processes in Geological Systems697
  • Chapter 104. Modelling of sediment compaction during burial in sedimentary basins699
  • Chapter 105. Vaporization-induced overpressures as a trigger for the hazardous collapse of lava dome709
  • Chapter 106. Bentonites from Ishirini (Libya) as natural analogues of long term thermal and chemical715
  • Chapter 107. The evolution of permeability in natural fractures – The competing roles of pressure721
  • Chapter 108. Earth crust structure as a result of rock fracturing at high pressure and temperature c727
  • Chapter 109. Compaction and diagenesis of sandstones – The role of pressure solution733
  • Chapter 110. Measurement and 2D modeling of fluid control on the hydromechanical behavior of a fract739
  • Theme 6. Coupled T-H-M-C Processes in Geotechnical and Environmental Engineering745
  • Chapter 111. Simulation of coupled thermal and solute concentration effects on dense radioactive was747
  • Chapter 112. Study on coupling influences of concrete dam foundation seepage, stress, and creep on s753
  • Chapter 113. Consolidation settlements above deep tunnels in fractured crystalline rock: Numerical a759
  • Chapter 114 . Coupled damage-seepage constitutive model of jointed rock masses and its engineering a765
  • Chapter 115. Mathematical modeling of borehole grouting in permafrost773
  • Chapter 116. Thermo-hydrological analysis to predict the temperature distribution around a cold food779
  • Chapter 117. Deep weathering and alteration in granites – A product of coupled processes785
  • Chapter 118. Modeling the thermo-mechanical processes of a typical Three-Gorges Dam section during a791
  • Chapter 119. Modeling of the dilatancy - Saturation coupling during excavation and consolidation of797
  • Author Index805
  • Subject Index807
Book details
  • Vendor Elsevier S & T
  • SKU 9780080445250
  • ISBN-13 9780080530062
  • Author Stephansson, Ove; Hudson, John; Jing, Lanru
  • Category Science
  • Subject Geology

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Among the most important and exciting current steps forward in geo-engineering is the development of coupled numerical models. They represent the basic physics of geo-engineering processes which can include the effects of heat, water, mechanics and chemistry. Such models provide an integrating focus for the wide range of geo-engineering disciplines.

The articles within this volume were originally presented at the inaugural GeoProc conference held in Stockholm and contain a collection of unusually high quality information not available elsewhere in an edited and coherent form. This collection not only benefits from the latest theoretical developments but also applies them to a number of practical and wide ranging applications. Examples include the environmental issues around radioactive waste disposal deep in rock, and the search for new reserves of oil and gas.