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Numerical Simulation of Reactive Flow in Hot Aquifers

Inhaltsverzeichnis

1 Introduction.- 2 Numerical Simulation of Reactive Flow using SHEMAT.- 2.1 General.- 2.2 Governing Equations.- 2.2.1 General.- 2.2.1 Ground Water Flow.- 2.2.2 Heat Transport.- 2.2.3 Species Transport.- 2.2.4 Physical Properties.- 2.2.5 Chemical Reactions.- 2.3 Numerical Techniques.- 2.3.1 Finite Difference Method.- 2.3.2 Flow Discretization.- 2.3.3 Discretization Schemes for Transport of Heat and Dissolved Species.- 2.3.4 Equation Solver.- 2.3.5 Time Step Control.- 2.3.6 Process Coupling.- 2.4 Input / Output.- 2.4.1 General Overview.- 2.4.2 Control File.- 2.4.3 Input File.- 2.4.4 Output File.- 2.4.5 Plot Files.- 2.4.6 Output Grid.- 2.4.7 Monitoring Files.- 2.4.8 Run-time Information.- 2.5 Practical Modeling: Remarks, Explanations and Instructions.- 2.5.1 Problem Size.- 2.5.2 Remarks on Flow Input Parameters.- 2.5.3 Boundary Conditions and Wells.- 2.5.4 Time.- 2.5.5 Convergence.- 2.6 Code Verification.- 2.6.1 Theis Problem.- 2.6.2 Rotating Cone Test.- 2.6.3 Henry’s Problem.- 2.6.4 Elder’s problem.- 3 Pre- and Post-Processing with “Processing SHEMAT”.- 3.1 What is Processing SHEMAT?.- 3.1.1 Professional Graphical Data Input Features.- 3.1.2 Sophisticated Modeling Tools.- 3.2 Modeling Environment.- 3.2.1 Units.- 3.2.2 Toolbar.- 3.2.3 Grid Editor.- 3.2.4 Data Editor.- 3.2.5 Value.- 3.2.6 Options.- 3.3 Menu System.- 3.3.1 File.- 3.3.2 Grid.- 3.3.3 Type.- 3.3.4 Time.- 3.3.5 Flow.- 3.3.6 Heat.- 3.3.7 Transport.- 3.3.8 Reaction.- 3.3.9 Models.- 3.3.10 Tools.- 3.3.11 Help.- 4 Advanced Features.- 4.1 Chemical Equilibrium Speciation for Brines at High Temperatures and Ionic Strength.- 4.1.1 Activity calculations.- 4.1.2 Comparison of the Pitzer and Debye-Hückel Models.- 4.1.3 Chemical Module based on Pitzer’s Equations.- 4.1.4 Specification of the Chemical Module.- 4.2 Fractal Relation Between Porosity and Permeability: Theory and Verification.- 4.2.1 Introduction.- 4.2.2 Permeability Derived from Pore Space Models.- 4.2.3 Exponents in the Relationship between Porosity and Permeability Implemented in SHEMAT.- 5 Tutorial for “Processing SHEMAT”.- 5.1 Introduction.- 5.1.1 General Information.- 5.1.2 How to use this Tutorial.- 5.1.3 Description of the Example Problem.- 5.2 Creating a Fluid Flow, Heat Transfer, and Solute Transport Model.- 5.2.1 Generating a New Model.- 5.2.2 Defining the Flow Parameters.- 5.2.3 Defining the Heat Parameters.- 5.2.4 Defining the Transport Parameters.- 5.2.5 Running Models and Visualizing Results.- 5.3 Using the Geochemical Reaction Module.- 5.3.1 General Information.- 5.3.2 Refining the Model Grid.- 5.3.3 Defining the Reaction Parameters.- 5.3.4 Running Geochemical Reaction Models and Visualizing Results.- 5.4 Expanding the Model to Three Dimensions.- 5.4.2 Defining the additional Model Parameters.- 5.4.3 Running 3-D Models and Visualizing Results.- 6 Applications.- 6.1 Development of a Preferential Flow Path in an Anhydrite Cemented Sandstone: Numerical Simulation of a Core Flooding Experiment.- 6.1.1 Problem description.- 6.1.2 Laboratory core flooding experiment.- 6.1.3 Concept and conditions for preferential flow path development.- 6.1.4 Model description and assumptions.- 6.1.5 Results and Discussion.- 6.1.6 Conclusion.- 6.2 Modeling Flooding of a Sandstone Core with Reactive Transport and Subsequent Changes in Porosity and Permeability.- 6.2.1 Problem description and experimental data.- 6.2.2 Model Description and Assumptions.- 6.2.4 Results and Discussion.- 6.3 Injection Well with Reaction Kinetics.- 6.3.1 Problem description.- 6.3.2 Model description and assumptions.- 6.3.3 Results and Discussion.- 6.3.4 Conclusion.- 6.4 Magmatic Intrusions in Long Valley Caldera.- 6.4.1 Long Valley Caldera: introduction and regional setting.- 6.4.2 Model description and assumptions.- 6.4.3 Steady-state Conductive Models.- 6.4.4 Transient Models of Heating and Cooling.- 6.4.5 Discussion.- 6.5 Rhine Graben Cross Section.- 6.5.1 Rhine Graben: Introduction and regional setting.- 6.5.2 Temperature Data Across the Upper Rhine Graben.- 6.5.3 Model description and assumptions.- 6.5.4 Results and Discussion.- 6.5.5 Discussion.- 6.6 Thermal Transect of Continental Lithosphere in Canada.- 6.6.1 Problem description.- 6.6.2 Temperature in the lithosphere: a matter of uncertainty.- 6.6.3 Model description.- 6.6.4 Results and discussion.- 6.7 Waiwera Coastal Geothermal System.- 6.7.1 Problem description.- 6.7.2 Observations.- 6.7.3 Model description and assumptions.- 6.7.4 Results and Discussion.- 6.7.5 Conclusions.- References.

Numerical Simulation of Reactive Flow in Hot Aquifers

SHEMAT and Processing SHEMAT

Buch (Taschenbuch, Englisch)

126,99 € inkl. gesetzl. MwSt.
Versandkostenfrei

Weitere Formate

Taschenbuch

126,99 €

Gebundene Ausgabe

145,99 €

eBook (PDF)

128,39 €

Beschreibung

Christoph Clauser and Jom Bartels SHE MAT (Simulator for HEat and MAss Transport) is an easy-to-use, general­ purpose reactive transport simulation code for a wide variety of thermal and hy­ drogeological problems in two and three dimensions. Specifically, SHEMAT solves coupled problems involving fluid flow, heat transfer, species transport, and chemical water-rock interaction in fluid-saturated porous media. It can handle a wide range of time scales. Therefore, it is useful to address both technical and geo­ logical processes. In particular, it offers special and attractive features for model­ ing steady-state and transient processes in hydro-geothermal reservoirs. This makes it well suited to predict the long-term behavior of heat mining installations in hot aquifers with highly saline brines. SHEMA T in its present form evolved from a fully coupled flow and heat transport model (Clauser 1988) which had been developed from the isothermal USGS 3-D groundwater model of Trescott and Larson (Trescott 1975; Trescott and Larson 1977). Transport of dissolved species, geochemical reactions between the solid and fluid phases, extended cou­ pling between the individual processes (most notably between porosity and per­ meability), and a convenient user interface (developed from Processing Modflow (Chiang and Kinzelbach 2001)) were added during several research projects funded by the German Science Foundation (DFG) under grant CL 12117 and the German Federal Ministries for Education, Science, Research, and Technology (BMBF) under grant 032 69 95A-D and for Economics and Technology (BMWi) under grant 0327095 (Bartels et al. 2002, Kuhn et al. 2002a).

From the reviews:

"The primary audience for this text consists of hydrogeologists and geophysicists. ... It aims to provide a systematic introduction to the software SHEMAT ... . Overall, the material is well presented. The philosophy of the book, to present the necessary mathematical background ... is well thought through. It should be able to fill a dual role of being a user guide and an introduction into the modelling and simulation of flow in hot aquifers." (Ute Mueller, The Australian Geologist, Issue 128, 2003)

Details

Einband

Taschenbuch

Erscheinungsdatum

12.04.2014

Herausgeber

Christoph Clauser

Verlag

Springer Berlin

Seitenzahl

332

Beschreibung

Details

Einband

Taschenbuch

Erscheinungsdatum

12.04.2014

Herausgeber

Christoph Clauser

Verlag

Springer Berlin

Seitenzahl

332

Maße (L/B/H)

23,6/15,4/2,5 cm

Gewicht

528 g

Auflage

2003

Sprache

Englisch

ISBN

978-3-642-62866-5

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  • Numerical Simulation of Reactive Flow in Hot Aquifers
  • 1 Introduction.- 2 Numerical Simulation of Reactive Flow using SHEMAT.- 2.1 General.- 2.2 Governing Equations.- 2.2.1 General.- 2.2.1 Ground Water Flow.- 2.2.2 Heat Transport.- 2.2.3 Species Transport.- 2.2.4 Physical Properties.- 2.2.5 Chemical Reactions.- 2.3 Numerical Techniques.- 2.3.1 Finite Difference Method.- 2.3.2 Flow Discretization.- 2.3.3 Discretization Schemes for Transport of Heat and Dissolved Species.- 2.3.4 Equation Solver.- 2.3.5 Time Step Control.- 2.3.6 Process Coupling.- 2.4 Input / Output.- 2.4.1 General Overview.- 2.4.2 Control File.- 2.4.3 Input File.- 2.4.4 Output File.- 2.4.5 Plot Files.- 2.4.6 Output Grid.- 2.4.7 Monitoring Files.- 2.4.8 Run-time Information.- 2.5 Practical Modeling: Remarks, Explanations and Instructions.- 2.5.1 Problem Size.- 2.5.2 Remarks on Flow Input Parameters.- 2.5.3 Boundary Conditions and Wells.- 2.5.4 Time.- 2.5.5 Convergence.- 2.6 Code Verification.- 2.6.1 Theis Problem.- 2.6.2 Rotating Cone Test.- 2.6.3 Henry’s Problem.- 2.6.4 Elder’s problem.- 3 Pre- and Post-Processing with “Processing SHEMAT”.- 3.1 What is Processing SHEMAT?.- 3.1.1 Professional Graphical Data Input Features.- 3.1.2 Sophisticated Modeling Tools.- 3.2 Modeling Environment.- 3.2.1 Units.- 3.2.2 Toolbar.- 3.2.3 Grid Editor.- 3.2.4 Data Editor.- 3.2.5 Value.- 3.2.6 Options.- 3.3 Menu System.- 3.3.1 File.- 3.3.2 Grid.- 3.3.3 Type.- 3.3.4 Time.- 3.3.5 Flow.- 3.3.6 Heat.- 3.3.7 Transport.- 3.3.8 Reaction.- 3.3.9 Models.- 3.3.10 Tools.- 3.3.11 Help.- 4 Advanced Features.- 4.1 Chemical Equilibrium Speciation for Brines at High Temperatures and Ionic Strength.- 4.1.1 Activity calculations.- 4.1.2 Comparison of the Pitzer and Debye-Hückel Models.- 4.1.3 Chemical Module based on Pitzer’s Equations.- 4.1.4 Specification of the Chemical Module.- 4.2 Fractal Relation Between Porosity and Permeability: Theory and Verification.- 4.2.1 Introduction.- 4.2.2 Permeability Derived from Pore Space Models.- 4.2.3 Exponents in the Relationship between Porosity and Permeability Implemented in SHEMAT.- 5 Tutorial for “Processing SHEMAT”.- 5.1 Introduction.- 5.1.1 General Information.- 5.1.2 How to use this Tutorial.- 5.1.3 Description of the Example Problem.- 5.2 Creating a Fluid Flow, Heat Transfer, and Solute Transport Model.- 5.2.1 Generating a New Model.- 5.2.2 Defining the Flow Parameters.- 5.2.3 Defining the Heat Parameters.- 5.2.4 Defining the Transport Parameters.- 5.2.5 Running Models and Visualizing Results.- 5.3 Using the Geochemical Reaction Module.- 5.3.1 General Information.- 5.3.2 Refining the Model Grid.- 5.3.3 Defining the Reaction Parameters.- 5.3.4 Running Geochemical Reaction Models and Visualizing Results.- 5.4 Expanding the Model to Three Dimensions.- 5.4.2 Defining the additional Model Parameters.- 5.4.3 Running 3-D Models and Visualizing Results.- 6 Applications.- 6.1 Development of a Preferential Flow Path in an Anhydrite Cemented Sandstone: Numerical Simulation of a Core Flooding Experiment.- 6.1.1 Problem description.- 6.1.2 Laboratory core flooding experiment.- 6.1.3 Concept and conditions for preferential flow path development.- 6.1.4 Model description and assumptions.- 6.1.5 Results and Discussion.- 6.1.6 Conclusion.- 6.2 Modeling Flooding of a Sandstone Core with Reactive Transport and Subsequent Changes in Porosity and Permeability.- 6.2.1 Problem description and experimental data.- 6.2.2 Model Description and Assumptions.- 6.2.4 Results and Discussion.- 6.3 Injection Well with Reaction Kinetics.- 6.3.1 Problem description.- 6.3.2 Model description and assumptions.- 6.3.3 Results and Discussion.- 6.3.4 Conclusion.- 6.4 Magmatic Intrusions in Long Valley Caldera.- 6.4.1 Long Valley Caldera: introduction and regional setting.- 6.4.2 Model description and assumptions.- 6.4.3 Steady-state Conductive Models.- 6.4.4 Transient Models of Heating and Cooling.- 6.4.5 Discussion.- 6.5 Rhine Graben Cross Section.- 6.5.1 Rhine Graben: Introduction and regional setting.- 6.5.2 Temperature Data Across the Upper Rhine Graben.- 6.5.3 Model description and assumptions.- 6.5.4 Results and Discussion.- 6.5.5 Discussion.- 6.6 Thermal Transect of Continental Lithosphere in Canada.- 6.6.1 Problem description.- 6.6.2 Temperature in the lithosphere: a matter of uncertainty.- 6.6.3 Model description.- 6.6.4 Results and discussion.- 6.7 Waiwera Coastal Geothermal System.- 6.7.1 Problem description.- 6.7.2 Observations.- 6.7.3 Model description and assumptions.- 6.7.4 Results and Discussion.- 6.7.5 Conclusions.- References.