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Principles of Applied Reservoir Simulation 4th edition [Minkštas viršelis]

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(Professor, Department of Engineering and Energy Institute, Texas Christian University, USA)
  • Formatas: Paperback / softback, 364 pages, aukštis x plotis: 229x152 mm, weight: 570 g
  • Išleidimo metai: 05-Jun-2018
  • Leidėjas: Gulf Professional Publishing
  • ISBN-10: 0128155639
  • ISBN-13: 9780128155639
Kitos knygos pagal šią temą:
Principles of Applied Reservoir Simulation 4th editionDidesnis paveikslėlis
  • Formatas: Paperback / softback, 364 pages, aukštis x plotis: 229x152 mm, weight: 570 g
  • Išleidimo metai: 05-Jun-2018
  • Leidėjas: Gulf Professional Publishing
  • ISBN-10: 0128155639
  • ISBN-13: 9780128155639
Kitos knygos pagal šią temą:
Pastovi nuoroda: https://www.kriso.lt/db/9780128155639.html
Raktažodžiai:

Reservoir engineers today are trying to understand more complex reservoir management and modelling skills, including knowledge on the model, equations, and how to use the models through simulating oil and gas development while hoping to learn countless commercial simulators. Principles of Applied Reservoir Simulation, Fourth Edition, continues to provide the fundamentals on these topics for both early and season career engineers and researchers. Enhanced with more practicality and with a focus on more modern reservoir simulations, this vital reference includes applications to not only traditional oil and gas reservoir problems but specialized applications in geomechanics, coal gas modelling, and unconventional resources. Strengthened with complementary software from the author to immediately apply to the engineer’s projects, Principles of Applied Reservoir Simulation, Fourth Edition, delivers knowledge critical for today’s basic and advanced reservoir and asset management.

  • Gives hands-on experience in working with reservoir simulators and links them to other petroleum engineering activities
  • Teaches on more specific reservoir simulation issues such as run control, tornado plot, linear displacement, fracture and cleat systems, and rewriting of the modelling workflow
  • Updates on more advanced simulation practices like EOR, low-salinity waterflooding, and unconventional reservoirs
About the Author xi
Preface to the Fourth Edition xiii
Acknowledgments xv
Website -- Software xvii
1 Introduction to Reservoir Simulation
1(8)
1.1 "Hands-on" simulation
3(1)
1.2 Introduction to IFLO
4(1)
1.3 Input data file
4(1)
1.4 Output data files
5(2)
1.5 Activities
7(2)
2 Geological Modeling
9(26)
2.1 Reservoir sampling and scales
10(2)
2.2 Integrating scales: the flow unit
12(3)
2.3 Types of flow models
15(7)
2.4 Traditional mapping
22(1)
2.5 Computer generated mapping
23(3)
2.6 Geostatistics and kriging
26(6)
2.7 Activities
32(3)
3 Rock Properties
35(24)
3.1 Well log data
35(3)
3.2 Pressure transient test data
38(5)
3.3 Porosity
43(2)
3.4 Permeability
45(5)
3.5 Porosity-permeability models
50(3)
3.6 Permeability-porosity-fluid pressure relationships
53(1)
3.7 IFLO application: gas injection into a light oil reservoir
54(1)
3.8 Activities
54(5)
4 Petroelastic Modeling and Geomechanical Modeling
59(22)
4.1 Reservoir geophysics
60(3)
4.2 Correlating reservoir properties to seismic data
63(3)
4.3 IFLO petroelastic model
66(3)
4.4 IFLO geomechanical model
69(3)
4.5 IFLO application: geomechanics and compaction
72(5)
4.6 IFLO application: scheduling time-lapse seismic surveys
77(2)
4.7 Activities
79(2)
5 Rock-Fluid Interaction
81(20)
5.1 Basic concepts
82(2)
5.2 Capillary pressure
84(4)
5.3 Effective permeability and relative permeability
88(4)
5.4 Flow capacity
92(1)
5.5 Mobility and mobility ratio
92(1)
5.6 Fractional flow
93(4)
5.7 IFLO application: frontal advance in a dipping reservoir
97(2)
5.8 Activities
99(2)
6 Fluid Properties and Model Initialization
101(20)
6.1 Fluid types
101(3)
6.2 Fluid modeling
104(4)
6.3 IFLO model
108(2)
6.4 Transition zones
110(3)
6.5 IFLO initialization model
113(4)
6.6 Original fluids in place
117(2)
6.7 Activities
119(2)
7 Multiphase Fluid Flow Equations
121(18)
7.1 The continuity equation
122(2)
7.2 Conservation laws
124(1)
7.3 Flow equations for black oil simulation
125(4)
7.4 Flow equations for compositional simulation
129(2)
7.5 Flow equations for IFLO
131(1)
7.6 Aquifer modeling
132(3)
7.7 IFLO application: depletion of a gas reservoir
135(1)
7.8 Activities
136(3)
8 Wells
139(24)
8.1 Darcy's law and well models
140(1)
8.2 IFLO well indices
140(3)
8.3 IFLO well models
143(4)
8.4 IFLO application: five-spot waterflood
147(2)
8.5 Well and facilities modeling
149(1)
8.6 Wellbore modeling
150(7)
8.7 Wellbore-reservoir coupling
157(3)
8.8 Activities
160(3)
9 Fundamentals of Reservoir Simulation
163(18)
9.1 Simulator solution procedures
163(4)
9.2 IFLO solution procedure
167(2)
9.3 IFLO transmissibility
169(1)
9.4 IFLO run control features
170(2)
9.5 Numerical dispersion
172(2)
9.6 Grid orientation effect
174(2)
9.7 IFLO application: linear displacement
176(1)
9.8 Activities
177(4)
10 Overview of the Modeling Process
181(14)
10.1 Reservoir management
181(5)
10.2 Prerequisites to a reservoir simulation study
186(1)
10.3 Simulator selection and ockham's razor
187(3)
10.4 Major Elements of a reservoir simulation study
190(1)
10.5 Tornado plots and radar plots
191(2)
10.6 Activities
193(2)
11 Traditional Model Study
195(26)
11.1 Deterministic reservoir forecasting
196(4)
11.2 Reservoir management objective
200(1)
11.3 Reservoir structure
200(2)
11.4 Drill stem test
202(1)
11.5 Fluid properties
203(2)
11.6 Reservoir management constraints
205(1)
11.7 History match and predictions
205(12)
11.8 Activities
217(4)
12 Modern Flow Modeling Workflows
221(20)
12.1 Description of the valley fill model
221(2)
12.2 Design of experiments
223(2)
12.3 Proxy models and response surfaces
225(1)
12.4 Green field flow modeling
225(3)
12.5 Brown field flow modeling
228(7)
12.6 Guidelines for modern flow modeling
235(2)
12.7 Activities
237(4)
13 Fracture and Shale Systems
241(16)
13.1 Flow concepts in naturally fractured reservoirs
241(2)
13.2 IFLO application: line-drive waterflood in a naturally fractured reservoir
243(2)
13.3 IFLO application: throughput in a naturally fractured reservoir model
245(3)
13.4 Shale resource modeling
248(1)
13.5 IFLO application: shale gas model
249(2)
13.6 IFLO application: shale oil model
251(4)
13.7 Activities
255(2)
14 Enhanced Recovery and Coal Gas Modeling
257(14)
14.1 Enhanced oil recovery modeling
257(4)
14.2 Enhanced gas recovery modeling
261(1)
14.3 IFLO application: CO2 sequestration in a mature oil field
261(3)
14.4 IFLO coal gas model
264(2)
14.5 IFLO application: coal gas production from a fruitland coal
266(3)
14.6 Activities
269(2)
Appendix A1 Initialization Data
271(44)
A1.1 Model dimensions and geometry
271(6)
A1.2 Porosity and permeability distributions
277(4)
A1.3 Rock region information
281(4)
A1.4 Modifications to pore volumes and transmissibilities
285(2)
A1.5 Reservoir geophysical parameters
287(9)
A1.6 Fluid PVT tables
296(4)
A1.7 Miscible solvent data
300(5)
A1.8 Pressure and saturation initialization
305(3)
A1.9 Run control parameters
308(3)
A1.10 Analytic aquifer models
311(1)
A1.11 Coal gas model
312(3)
Appendix A2 Recurrent Data
315(14)
A2.1 Time step and output control
315(3)
A2.2 Well information
318(11)
Appendix B Example IFLO Input Data Set
329(6)
Appendix C Unit Conversion Factors
335(4)
References 339(8)
Index 347
John R. Fanchi is a Professor in the Department of Engineering and Energy Institute at Texas Christian University in Fort Worth, Texas. He holds the Ross B. Matthews Chair of Petroleum Engineering and teaches courses in energy and engineering. Before this appointment, he taught petroleum and energy engineering courses at the Colorado School of Mines and worked in the technology centers of four energy companies (Chevron, Marathon, Cities Service and Getty). He is a Distinguished Member of the Society of Petroleum Engineers and authored numerous books, including Integrated Reservoir Asset Management, Energy: Technology and Directions for the Future, Shared Earth Modeling, and Integrated Flow Modeling, all published with Elsevier.