Cover image for Mechanics of Fluid Flow.
Mechanics of Fluid Flow.
Title:
Mechanics of Fluid Flow.
Author:
Basniev, Kaplan S.
ISBN:
9781118533512
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (572 pages)
Contents:
Mechanics of Fluid Flow -- Contents -- Preface -- PART I Fundamentals of the Mechanics of Continua -- I Basic Concepts of the Mechanics of Continua -- Introduction -- 1. Continuity hypothesis -- 2. Movement of continuous medium: description techniques -- 3. Local and substantive derivative -- 4. Scalar and vector fields -- 5. Forces and stresses in the continuous medium. Stress tensor -- II Conservation Laws. Integral and Differential Equations of Continuous Medium -- 1. Integral parameters of a continuous medium and the conservation laws -- 2. Time differentiation of the integral taken over a movable volume -- 3. Continuity equation (law of mass conservation) -- 4. Motion equation under stress -- 5. Law of variation of kinetic momentum. Law of pairing of tangential stresses -- 6. The law of conservation of energy -- 7. Theorem of variation of kinetic energy -- 8. Heat flow equation -- 9. Continuous medium motion equations -- III Continuous Medium Deformation Rate -- 1. Small particle deformation rate. Helmholtz theorem -- 2. Tensor of the deformation velocity -- 3. Physical meaning of the deformation velocity tensor components -- 4. Tensor surface of a symmetric second-rank tensor -- 5. Velocity circulation. Potential motion of the liquid -- IV Liquids -- 1. Mathematical model of ideal fluid -- 2. Mathematical model of ideal incompressible fluid -- 3. Viscous fluid. Stress tensor in viscous fluid -- 4. Motion equations of viscous fluids -- 5. Mathematical model of a viscous incompressible fluid -- 6. The work of internal forces. Equation of the heat inflow -- V Basics of the Dimensionality and Conformity Theory -- 1. Systems of units. Dimensionality -- 2. Dimensionality formula -- 3. Values with independent dimensionalities -- 4. (Pie)-theorem -- 5. Conformity of physical phenomena, modeling -- 6. Parameters determining the class of phenomena.

7. Examples of application of the (Pie)-theorem -- 8. Contraction of equations to dimensionless format -- PART II Hydromechanics -- VI Hydrostatics -- 1. Liquids and gas equilibrium equations -- 2. Equilibrium of a liquid in the gravitational field -- 3. Relative quiescence of fluid -- 4. Static pressure of liquid on firm surfaces -- 5. Elements of buoyancy theory -- VII Flow of Ideal Fluid -- 1. Euler's equations in the Gromeko-Lamb format -- 2. Bernoulli's integral -- 3. Particular forms of Bernoulli's integral -- 4. Simple applications of Bernoulli's integral -- 5. Cauchy-Lagrange's integral -- 6. Thomson's theorem -- 7. Helmholtz equation -- 8. Potential flow of an incompressible fluid -- 9. Flow around the sphere -- 10. Applications of the momentum law -- VIII Parallel-Plane Flows of Ideal Incompressible Fluid -- 1. Complex-valued potential of flow -- 2. Examples of parallel-plane potential flows -- 3. Conformous reflection of flows -- 4. Zhukovsky's transform -- 5. Flow-around an arbitrary profile -- 6. Forces acting on a profile under the stationary flow -- IX Flow of Viscous Incompressible Fluid in Prismatic Tubes -- 1. Equations descring straight-line motion of a viscous incompressible fluid in prismatic tubes -- 2. Straight-line flow between two parallel walls -- 3. Straight-line flow within axisymmetric tubes -- 4. Equation of transient-free circular motion of a viscous fluid -- 5. Flow between two revolving cylinders -- X Turbulent Flow of Fluids in Pipes -- 1. Reynolds'experiments -- 2. Averaging the parameters of turbulent flow -- 3. Reynolds'equations -- 4. Semi-empiric turbulency theory by L. Prandtl -- 5. Application of the dimensionality theory to the construction of semi-empirical turbulence theories -- 6. Logarithmic law of velocity distribution -- 7. Experimental studies of hydraulic resistance.

XI Hydraulic Calculation for Pipelines -- 1. Bernoulli's equation for a viscous fluid flow -- 2. Types of head loss -- 3. Designing simple pipelines -- 4. Designing complex pipelines -- 5. Pipelines performing under vacuum -- XII Fluid's Outflow from Orifices and Nozzles -- 1. Outflow from a small orifice -- 2. Outflow through nozzles -- 3. Outflow of fluid at variable head -- XIII Non-Stationary Flow of Viscous Fluid in Tubes -- 1. Equations of the non-stationary fluid flow in tubes -- 2. Equation of non-stationary flow for slightly-compressible fluid in tubes -- 3. Equations of non-stationary gas flow in tubes at low subsonic velocities -- 4. Integrating equations of non-stationary fluid and gas flow using the characteristics technique -- 5. Integrating linearized equations of non-stationary flow using Laplace transformation -- 6. Examples of computing non-stationary flow in tubes -- 7. Hydraulic shock -- 8. Effect of flow instability on force of friction -- XIV Laminar Boundary Layer -- 1. Equations of the boundary layer -- 2. Blasius problem -- 3. Detachment of the boundary layer -- XV Unidimensional Gas Flows -- 1. Sound velocity -- 2. Energy conservation law -- 3. Mach number. Velocity factor -- 4. Linkage between the flow tube's cross-section area and flow velocity -- 5. Gas outflow through a convergent nozzle -- 6. De Laval's nozzle -- 7. Gas-dynamic functions -- 8. Shock waves -- 9. Computation of gas ejector -- 10. Transient-free gas flow in tubes -- 11. Shukhov's equation -- XVI Laminar Flow of Non-Newtonian Fluids -- 1. Simple shear -- 2. Classification of non-Newtonian fluids -- 3. Viscosimetry -- 4. Fluid flow in an infinitely-long round tube -- 5. Rotational fluid flow within a ring gap -- 6. Integral technique in viscosimetry -- 7. Hydraulic resistance factor.

8. Additional remarks to the calculation of non-Newtonian fluids flow in tubes -- XVII Two-Phase Flow in Pipes -- 1. Equations of the conservation laws -- 2. Equations of two-phase mixture flow in tubes -- 3. Transformation of equations of two-phase flow in pipes -- 5. Absolute open flow of a gas-condensate well -- PART III Oil and Gas Subsurface Hydromechanics -- XVIII Main Definitions and Concepts of Fluid and Gas Flow. Darcy's Law and Experiment -- 1. Specifics of fluid flow in natural reservoirs -- 3. Reservoir properties of porous bodies. Porosity, specific surface area -- 4. Darcy's experiment and Darcy's law. Permeability. The concept of "true" average flow velocity and flow velocity -- 5. Applicability limits of Darcy's law. Analysis and interpretation of experimental data -- 6. Nonlinear laws of filtration -- 7. Structural model of porous media -- 8. Darcy's law for anisotropic media -- XIX Mathematical Models of Uniphase Filtration -- 1. Introductory notes. The concept of the mathematical model of a physical process -- 2. Mass conservation laws in a porous medium -- 3. Differential equation of fluid flow -- 4. Closing equations. Mathematical models of isothermal filtration -- 5. Filtration model of incompressible viscous fluid under Darcy's law in a non-deformable reservoir -- 6. Gas filtration model under Darcy's law. Leibensohn's function -- 7. Uniphase filtration models in non-deformable reservoir under non-linear filtration laws -- 8. Correlation between fluid parameters and porous medium parameters with pressure -- XX Unidimensional Transient-Free Filtration of Incompressible Fluid and Gas in an Uniform Porous Medium -- 1. Schematics of unidimensional filtration flows -- 2. Rectiliner-parallel filtration of incompressible fluid -- 3. Radial-plane filtration of incompressible fluid.

4. Radial-spherical filtration of incompressible fluid -- 5. Filtration similarity between incompressible liquid and gas -- 6. Unidimensional filtration flow of ideal gas -- 7. Parallel-plane filtration flow of real gas under Darcy's law -- 8. Radial-plane filtration flow of incompressible liquid and gas under binomial filtration law -- 9. Radial-plane filtration flow on incompressible liquid and gas under the exponential filtration law -- XXI Unidimensional Filtration of Incompressible Liquid and Gas in a Nonuniform Reservoirs Under Darcy's Law -- 1. Major types of reservoir nonuniformities -- 2. Rectilinear-parallel flow within nonuniformly-laminated reservoir -- 3. Rectilinear-parallel flow in zonally-nonuniform bed -- 4. On the calculation of continuously-nonuniform reservoirs -- 5. Radial-plane flow in a nonuniformly stratified reservoir -- 6. Rectilineal-parallel flow in a nonuniformly stratified reservoir -- XXII Flat Transient-Free Filtration Flows -- 1. Major definitions and concepts -- 2. Potential of a point source and sink on an isotropic plane. Superposition method -- 3. Liquid flow to a group of wells with the remote charge contour -- 4. Liquid inflow to a well in the reservoir with a rectilinear charge contour -- 5. Liquid inflow to a well in the reservoir near the impermeable boundary -- 6. Liquid inflow to a well positioned eccentrically in a round reservoir -- 7. On the use of superposition technique at the gas filtration -- 8. Fluids inflow to infinite well lines and ring well rows -- XXIII Non-Stationary Flow of an Elastic Fluid in an Elastic Reservoir -- 1. Elastic reservoir drive -- 2. Calculation of elastic fluid reserves of a reservoir -- 3. Mathematical model of the elastic fluid non-stationary filtration in an elastic porous medium.

4. Derivation of the differential equation of the elastic fluid filtration in an elastic porous medium under Darcy's law.
Abstract:
The mechanics of fluid flow is a fundamental engineering discipline explaining both natural phenomena and human-induced processes, and a thorough understanding of it is central to the operations of the oil and gas industry.  This book, written by some of the world's best-known and respected petroleum engineers, covers the concepts, theories, and applications of the mechanics of fluid flow for the veteran engineer working in the field and the student, alike.  It is a must-have for any engineer working in the oil and gas industry.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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