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BL
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| Record Number
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840268
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| Main Entry
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Sanni, Moshood.
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| Title & Author
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Petroleum Engineering.
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| Publication Statement
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Newark :: American Geophysical Union,, 2018.
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| Series Statement
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Geophysical Monograph Ser. ;; v. 237
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| Page. NO
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1 online resource (521 pages)
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| ISBN
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1119387965
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: 9781119387961
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1119387949
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9781119387947
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| Notes
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4.2.3. EOS Model Parameters.
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| Contents
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Intro; TITLE PAGE; COPYRIGHT PAGE; CONTENTS; PREFACE; ACKNOWLEDGMENTS; Chapter 1 Petroleum System and Petroleum Engineering; 1.1. THE PETROLEUM ENGINEER; 1.2. ROLES OF THE PETROLEUM ENGINEER IN THE FIELD LIFE CYCLE; 1.3. ORIGIN OF PETROLEUM; 1.4. PETROLEUM SYSTEM; 1.4.1. Petroleum Source Rocks; 1.4.2. Petroleum Migration; 1.4.3. Reservoir Rock; 1.4.4. Seal Rock; 1.4.5. Traps; 1.5. PETROLEUM RESERVOIRS; 1.5.1. Reservoir Fluid Zones; 1.5.2. Reservoir Hydrocarbon Volumes; 1.6. PETROLEUM RESOURCE CLASSIFICATION; 1.6.1. Prospective Resources; 1.6.2. Contingent Resources; 1.6.3. Reserves.
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1.6.4. Reserve Estimation Methods1.6.5. Use of Seismic Data for Petroleum Resource Calculation; 1.6.6. Resource Estimation at Different Stages of Life Cycle; 1.6.7. Reserve Reporting and Audit; REFERENCES; BIBLIOGRAPHY; Chapter 2 Petroleum Reservoir Rock Properties; 2.1. POROSITY; 2.1.1. Absolute and Effective Porosity; 2.1.2. Porosity Determination; 2.2. PERMEABILITY; 2.2.1. Henry Darcyś Experiment; 2.2.2. Darcyś Law for Liquids; 2.2.3. Darcyś Law for Gas; 2.2.4. Non-Darcy Flow; 2.2.5. Averaging Reservoir Permeability.
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2.3. EFFECTIVE CONFINING PRESSURE DEPENDENCE OF POROSITY AND PERMEABILITY2.4. WETTABILITY; 2.4.1. Wettability Measurement; 2.5. CAPILLARY PRESSURE; 2.5.1. Capillary Tube Analogy of Porous Media; 2.5.2. Capillary Pressure and Fluid Distribution; 2.5.3. Capillary Pressure Defined as a Function of Radii of Curvature of Interface; 2.5.4. Experimental Determination of Capillary Pressure; 2.5.5. Leverett J-Function; 2.5.6. Empirical Relationship for Capillary Pressure; 2.5.7. Saturation Height Function Prediction in Reservoirs; 2.6. RELATIVE PERMEABILITY; 2.6.1. Relative Permeability Models.
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2.6.2. Three-phase Relative PermeabilityREFERENCES; BIBLIOGRAPHY; Chapter 3 Reservoir Fluid Properties; 3.1. PHASE BEHAVIOR OF PETROLEUM HYDROCARBONS; 3.1.1. Black Oil (Low Shrinkage Oil); 3.1.2. Volatile Oil (High Shrinkage Oil); 3.1.3. Retrograde Gas (Gas Condensate); 3.1.4. Wet Gas; 3.1.5. Dry Gas; 3.2. NATURAL GAS PROPERTIES; 3.2.1. Ideal Gas Behavior; 3.2.2. Real Gas Behavior; 3.2.3. Equation of State for Predicting Real Gas Behavior; 3.3. CRUDE OIL PROPERTIES; 3.3.1. Crude Oil Property Correlations; 3.3.2. Liquid Viscosity Model; 3.3.3. Interfacial Tension.
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3.4. VAPOR LIQUID EQUILIBRIUM (VLE)3.4.1. Flash Calculations; 3.4.2. K Value Calculations; 3.4.3. Properties of Pseudocomponents; 3.4.4. Saturation Points; 3.5. RESERVOIR FLUID SAMPLING; 3.5.1. Bottomhole Sampling; 3.5.2. Surface Sampling; 3.6. FLUID EXPERIMENTS; 3.6.1. Gas Laboratory Experiment; 3.6.2. Oil Laboratory Experiment; 3.6.3. Enhanced Oil Recovery Experiments; REFERENCES; BIBLIOGRAPHY; Chapter 4 Equations of States; 4.1. GENERALIZED REPRESENTATION OF EOS MODELS; 4.2. EOS MODELS FOR MULTICOMPONENTS; 4.2.1. Simple Mixing Rule; 4.2.2. van der Waals Mixing Rule.
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| Subject
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Petroleum engineering.
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| Dewey Classification
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665.5
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| LC Classification
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TN870.S266 2019
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