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E-raamat: Simulating Oil Entrapment in Clastic Sequences

, (Department of Geological Sciences, Stanford University, California, USA)
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The book introduces procedures for simulating migration and entrapment of oil in three dimensions in sequences of sandstones and shales.

A principal purpose is to show how simulation experiments can represent oil migration routes and predict places where oil may be trapped in sandstones and intercalated shales.

The book derives the differential equations used to represent three-dimensional motions of porewater and oil in sedimentary sequences, and shows how the equations may be transformed into finite form for numerical solution with computers. There is emphasis on the graphic display of solutions, and results of example theoretical and actual applications are presented.

The book is directed to geologists who have backgrounds in mathematics and computing and who are engaged in oil exploration and production.

PREFACE x
CHAPTER 1: RATIONALE FOR SIMULATING OIL MIGRATION AND ENTRAPMENT IN CLASTIC SEQUENCES
1(9)
THE CONTINUUM OF PROCESSES IN THE REAL WORLD
3(1)
REPRESENTING SPACE AND TIME
4(6)
Spatial boundaries
4(1)
Decoupling processes
5(1)
Spatial resolution
5(1)
Simplifying processes
6(2)
Scale dependency
8(2)
CHAPTER 2: OVERVIEW OF MIGRATION AND ACCUMULATION
10(17)
SOURCE ROCKS
10(3)
EXPULSION FROM SOURCE ROCKS
13(3)
SECONDARY MIGRATION
16(6)
Migration rates and efficiencies
18(2)
Oil migration pathways
20(1)
Migration under hydrodynamic conditions
21(1)
SEGREGATION AND CHANGE DURING MIGRATION AND ENTRAPMENT
22(2)
CLOSING STATEMENT
24(3)
CHAPTER 3: GENERATING CLASTIC SEQUENCES
27(32)
TYPES OF NUMERICAL SEDIMENTARY SIMULATORS
28(3)
Geostatistical simulators
28(1)
Geometric simulators
29(1)
Diffusion simulators
29(1)
Sedimentary process simulators
30(1)
Comparison of numerical sedimentary simulators
30(1)
UTILIZING PROCESS SIMULATORS
31(4)
Spectrum of process simulators
33(1)
Calibrating and controlling process simulators
34(1)
BOUNDARY AND INITIAL CONDITIONS
35(5)
Initial topography
35(1)
Fluid and sediment discharge rates
36(2)
Eustatic sea level changes
38(1)
Uplift and subsidence
38(2)
DEPOSITIONAL ENVIRONMENTS
40(6)
Fluvial environments
40(2)
Deltaic environments
42(1)
Oceanic environments
43(2)
Submarine slope failure and turbidity currents
45(1)
RECORDING SEQUENCES GENERATED BY PROCESS SIMULATORS
46(5)
Cell height
46(2)
Cellular storage by age
48(2)
Reduction in number of cells
50(1)
INTEGRATING DEPOSITIONAL AND BURIAL HISTORY
51(2)
LIMITATIONS IN SEDIMENTARY PROCESS SIMULATION
53(4)
Mathematical representation
53(1)
Resolution, scale, and grid dimensions
54(1)
Decoupling processes
54(1)
Limitations imposed by boundary conditions
55(1)
Computing speed
55(1)
Disk storage
56(1)
Graphic display
57(1)
CLOSING STATEMENT
57(2)
CHAPTER 4: ENDOWING SIMULATED SEQUENCES WITH PETROPHYSICAL FLOW PROPERTIES
59(23)
POROSITY AND COMPACTION
59(6)
Compaction involving multiple grain sizes
60(3)
"Chemical" compaction
63(1)
Calculating porosity in simulated sequences
64(1)
PERMEABILITY
65(4)
Obtaining permeabilities empirically
66(1)
Permeability based on the Kozeny-Carman equation
67(2)
CAPILLARY PRESSURE
69(6)
Capillary pressure as function of wetting-phase saturation
72(1)
Capillary pressure as function of pore-size frequency distributions
72(3)
RELATIVE PERMEABILITY
75(4)
CLOSING STATEMENT
79(3)
CHAPTER 5: SIMULATING FACIES RELATIONSHIPS, POROSITY, AND PERMEABILITY IN THE WOODBINE FORMATION OF EAST TEXAS
82(17)
GEOLOGY OF THE WOODBINE FORMATION
82(7)
SIMULATING DEPOSITION OF THE WOODBINE SANDSTONES
89(2)
Initial topography
89(1)
Defining a sediment source and grain sizes
89(1)
The simulations
90(1)
Results
91(1)
TRANSFORMING PROPORTIONS OF GRAIN SIZES TO POROSITIES AND PERMEABILITIES
91(7)
Burial and compaction
91(3)
Cementation
94(2)
Permeabilities
96(1)
Variations in porosity and permeability
96(2)
CLOSING STATEMENT
98(1)
CHAPTER 6: METHODS FOR SIMULATING MIGRATION AND ENTRAPMENT
99(16)
MASS BALANCE
99(3)
PORE-SCALE PROCEDURES
102(2)
HYDROSTATIC MIGRATION PROCEDURES
104(5)
Discrete interface procedure
104(3)
Flow-line and particle-tracking procedures
107(2)
HYDRODYNAMIC PROCEDURES
109(2)
BASIN-SCALE PROCEDURES
111(3)
Finite-volume procedures
111(2)
Finite-element procedures
113(1)
CLOSING STATEMENT
114(1)
CHAPTER 7: A SIMULATOR FOR OIL MIGRATION AND ENTRAPMENT IN CLASTIC SEQUENCES
115(30)
FLUID CONTINUITY AND MOMENTUM EQUATIONS
116(8)
Linking fluid flow with compaction
117(1)
Coupled movement of solids and porewater
118(4)
Equations for migration in a compacting sedimentary sequence
122(2)
SOLVING THE TWO-PHASE FLOW EQUATIONS
124(3)
Newton's method for solving nonlinear systems of equations
125(2)
DISCRETIZING THE TWO-PHASE FLOW EQUATIONS
127(7)
Flux and transmissibility
128(1)
Geometric factor
129(1)
Mobility
130(2)
Potential difference
132(1)
Accumulation
133(1)
Petroleum fluid sources
134(1)
BOUNDARY CONDITIONS
134(1)
SOLVING THE SYSTEM OF EQUATIONS
135(2)
IMPLEMENTATION OF PROGRAM MIGRAT
137(1)
EXPERIMENTS WITH MIGRAT
137(5)
Buoyancy experiment
139(1)
Capillary pressure experiment
140(1)
Sediment-load experiment
141(1)
Reservoir-simulator experiment
141(1)
CLOSING STATEMENT
142(3)
CHAPTER 8: SIMULATING DEPOSITION AND MIGRATION AT SOUTH BELRIDGE FIELD, CALIFORNIA
145(16)
SOUTH BELRIDGE'S GEOLOGY
146(9)
Depositional environment
147(2)
Porosity, permeability, and oil saturations
149(1)
Properties of crude oil
150(1)
SIMULATING SOUTH BELRIDGE'S PROGRADING DELTA
151(4)
TRANSFORMING THE DEPOSITIONAL SIMULATION FOR MIGRATION AND ENTRAPMENT
155(2)
SIMULATING MIGRATION AND ENTRAPMENT
157(4)
Boundary conditions
157(1)
Charging the sequence in the simulation
158(1)
Results
158(3)
CHAPTER 9: SUMMING IT UP AND A LOOK AHEAD
161(8)
GENERATING CLASTIC SEQUENCES
161(2)
TRANSFORMING SPATIAL DISTRIBUTIONS OF GRAIN SIZES TO PETROPHYSICAL FLOW PROPERTIES
163(1)
SIMULATING OIL MIGRATION
164(2)
A LOOK AHEAD
166(3)
NOTATION 169(3)
REFERENCES 172