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Fluid Mechanics 2nd edition [Hardback]

  • Formāts: Hardback, 912 pages, height x width x depth: 236x201x36 mm, weight: 1624 g
  • Izdošanas datums: 26-Jan-2017
  • Izdevniecība: Addison Wesley
  • ISBN-10: 013464929X
  • ISBN-13: 9780134649290
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  • Formāts: Hardback, 912 pages, height x width x depth: 236x201x36 mm, weight: 1624 g
  • Izdošanas datums: 26-Jan-2017
  • Izdevniecība: Addison Wesley
  • ISBN-10: 013464929X
  • ISBN-13: 9780134649290
Citas grāmatas par šo tēmu:

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For Fluid Mechanics courses found in Civil and Environmental, General Engineering, and Engineering Technology and Industrial Management departments.

 

Fluid Mechanics is intended to provide a comprehensive guide to a full understanding of the theory and many applications of fluid mechanics. The text features many of the hallmark pedagogical aids unique to Hibbeler texts, including its student-friendly clear organization. The text supports the development of student problem-solving skills through a large variety of problems, representing a broad range of engineering disciplines that stress practical, realistic situations encountered in professional practice, and provide varying levels of difficulty. The text offers flexibility in that basic principles are covered in chapters 1-6, and the remaining chapters can to be covered in any sequence without the loss of continuity.

 

Updates to the 2nd Edition result from comments and suggestions from colleagues, reviewers in the teaching profession, and many of the author’s students, and include expanded topic coverage and new Example and Fundamental Problems intended to further students’ understanding of the theory and its applications.

 

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  •  013464929X / 9780134649290 luid Mechanics

1 Fundamental Concepts
3(42)
Chapter Objectives
3(1)
1.1 Introduction
3(2)
1.2 Characteristics of Matter
5(1)
1.3 Systems of Units
6(3)
1.4 Calculations
9(2)
1.5 Problem Solving
11(2)
1.6 Some Basic Fluid Properties
13(5)
1.7 Viscosity
18(5)
1.8 Viscosity Measurement
23(4)
1.9 Vapor Pressure
27(1)
1.10 Surface Tension and Capillarity
28(17)
2 Fluid Statics
45(92)
Chapter Objectives
45(1)
2.1 Pressure
45(3)
2.2 Absolute and Gage Pressure
48(2)
2.3 Static Pressure Variation
50(1)
2.4 Pressure Variation for Incompressible Fluids
51(2)
2.5 Pressure Variation for Compressible Fluids
53(3)
2.6 Measurement of Static Pressure
56(8)
2.7 Hydrostatic Force on a Plane Surface---Formula Method
64(6)
2.8 Hydrostatic Force on a Plane Surface---Geometrical Method
70(5)
2.9 Hydrostatic Force on a Plane Surface---Integration Method
75(3)
2.10 Hydrostatic Force on an Inclined Plane or Curved Surface Determined by Projection
78(7)
2.11 Buoyancy
85(3)
2.12 Stability
88(3)
2.13 Constant Translational Acceleration of a Liquid
91(5)
2.14 Steady Rotation of a Liquid
96(41)
3 Kinematics of Fluid Motion
137(1)
3 Kinematics of Fluid Motion
137(36)
Chapter Objectives
137(1)
3.1 Types of Fluid Flow
137(4)
3.2 Graphical Descriptions of Fluid Flow
141(4)
3.3 Fluid Flow Descriptions
145(7)
3.4 Fluid Acceleration
152(7)
3.5 Streamline Coordinates
159(14)
4 Conservation of Mass
173(1)
4 Conservation of Mass
173(42)
Chapter Objectives
173(1)
4.1 Volumetric Flow, Mass Flow, and Average Velocity
173(5)
4.2 Finite Control Volumes
178(2)
4.3 The Reynolds Transport Theorem
180(4)
4.4 Conservation of Mass
184(31)
Fundamental Concepts
3(42)
Fluid Statics
45(170)
5 Work and Energy of Moving Fluids
215(70)
Chapter Objectives
215(1)
5.1 Euler's Equations of Motion
215(4)
5.2 The Bernoulli Equation
219(3)
5.3 Applications of the Bernoulli Equation
222(13)
5.4 Energy and Hydraulic Grade Lines
235(9)
5.5 The Energy Equation
244(41)
6 Fluid Momentum
285(58)
Chapter Objectives
285(1)
6.1 The Linear Momentum Equation
285(3)
6.2 Applications to Bodies at Rest
288(9)
6.3 Applications to Bodies Having Constant Velocity
297(5)
6.4 The Angular Momentum Equation
302(8)
6.5 Propellers and Wind Turbines
310(5)
6.6 Applications for Control Volumes Having Accelerated Motion
315(1)
6.7 Turbojets and Turbofans
316(1)
6.8 Rockets
317(26)
7 Differential Fluid Flow
343(76)
Chapter Objectives
343(1)
7.1 Differential Analysis
343(1)
7.2 Kinematics of Differential Fluid Elements
344(4)
7.3 Circulation and Vorticity
348(5)
7.4 Conservation of Mass
353(2)
7.5 Equations of Motion for a Fluid Particle
355(2)
7.6 The Euler and Bernoulli Equations
357(4)
7.7 Potential Flow Hydrodynamics
361(1)
7.8 The Stream Function
361(6)
7.9 The Potential Function
367(4)
7.10 Basic Two-Dimensional Flows
371(9)
7.11 Superposition of Flows
380(13)
7.12 The Navier--Stokes Equations
393(5)
7.13 Computational Fluid Dynamics
398(21)
8 Dimensional Analysis and Similitude
419(1)
8 Dimensional Analysis and Similitude
419(40)
Chapter Objectives
419(1)
8.1 Dimensional Analysis
419(3)
8.2 Important Dimensionless Numbers
422(3)
8.3 The Buckingham Pi Theorem
425(9)
8.4 Some General Considerations Related to Dimensional Analysis
434(1)
8.5 Similitude
435(24)
9 Viscous Flow within Enclosed Conduits
459(46)
Chapter Objectives
459(1)
9.1 Steady Laminar Flow between Parallel Plates
459(6)
9.2 Navier--Stokes Solution for Steady Laminar Flow between Parallel Plates
465(5)
9.3 Steady Laminar Flow within a Smooth Pipe
470(4)
9.4 Navier--Stokes Solution for Steady Laminar Flow within a Smooth Pipe
474(2)
9.5 The Reynolds Number
476(5)
9.6 Fully Developed Flow from an Entrance
481(2)
9.7 Laminar and Turbulent Shear Stress within a Smooth Pipe
483(3)
9.8 Steady Turbulent Flow within a Smooth Pipe
486(19)
10 Analysis and Design for Pipe Flow
505(1)
10 Analysis and Design for Pipe Flow
505(54)
Chapter Objectives
505(1)
10.1 Resistance to Flow in Rough Pipes
505(14)
10.2 Losses Occurring from Pipe Fittings and Transitions
519(6)
10.3 Single-Pipeline Flow
525(7)
10.4 Pipe Systems
532(6)
10.5 Flow Measurement
538(21)
11 Viscous Flow over External Surfaces
559(80)
Chapter Objectives
559(1)
11.1 The Concept of the Boundary Layer
559(6)
11.2 Laminar Boundary Layers
565(9)
11.3 The Momentum Integral Equation
574(4)
11.4 Turbulent Boundary Layers
578(2)
11.5 Laminar and Turbulent Boundary Layers
580(6)
11.6 Drag and Lift
586(2)
11.7 Pressure Gradient Effects
588(5)
11.8 The Drag Coefficient
593(4)
11.9 Drag Coefficients for Bodies Having Various Shapes
597(7)
11.10 Methods for Reducing Drag
604(4)
11.11 Lift and Drag on an Airfoil
608(31)
12 Open-Channel Flow
639(60)
Chapter Objectives
639(1)
12.1 Types of Flow in Open Channels
639(2)
12.2 Open-Channel Flow Classifications
641(1)
12.3 Specific Energy
642(8)
12.4 Open-Channel Flow over a Rise or Bump
650(4)
12.5 Open-Channel Flow under a Sluice Gate
654(4)
12.6 Steady Uniform Channel Flow
658(7)
12.7 Gradually Varied Flow
665(7)
12.8 The Hydraulic Jump
672(5)
12.9 Weirs
677(22)
Viscous Flow within Enclosed Conduits
459(240)
13 Compressible Flow
699(92)
Chapter Objectives
699(1)
13.1 Thermodynamic Concepts
699(9)
13.2 Wave Propagation through a Compressible Fluid
708(3)
13.3 Types of Compressible Flow
711(4)
13.4 Stagnation Properties
715(7)
13.5 Isentropic Flow through a Variable Area
722(5)
13.6 Isentropic Flow through Converging and Diverging Nozzles
727(9)
13.7 The Effect of Friction on Compressible Flow
736(10)
13.8 The Effect of Heat Transfer on Compressible Flow
746(6)
13.9 Normal Shock Waves
752(3)
13.10 Shock Waves in Nozzles
755(5)
13.11 Oblique Shock Waves
760(5)
13.12 Compression and Expansion Waves
765(5)
13.13 Compressible Flow Measurement
770(21)
14 Turbomachines
791(49)
Chapter Objectives
791(1)
14.1 Types of Turbomachines
791(1)
14.2 Axial-Flow Pumps
792(7)
14.3 Radial-Flow Pumps
799(3)
14.4 Ideal Performance for Pumps
802(6)
14.5 Turbines
808(7)
14.6 Pump Performance
815(3)
14.7 Cavitation and the Net Positive Suction Head
818(2)
14.8 Pump Selection Related to the Flow System
820(2)
14.9 Turbomachine Similitude
822(18)
Appendix
A Physical Properties of Fluids
840(6)
B Compressible Properties of a Gas (k= 1.4)
846(11)
Fundamental Solutions 857(16)
Answers to Selected Problems 873(12)
Index 885
R.C. Hibbeler graduated from the University of Illinois at Urbana-Champaign with a BS in Civil Engineering (majoring in Structures) and an MS in Nuclear Engineering. He obtained his PhD in Theoretical and Applied Mechanics from Northwestern University. Professor Hibbelers professional experience includes postdoctoral work in reactor safety and analysis at Argonne National Laboratory, and structural and stress analysis work at Chicago Bridge and Iron, as well as at Sargent and Lundy in Chicago. He has practiced engineering in Ohio, New York, and Louisiana.

Professor Hibbeler currently teaches both civil and mechanical engineering courses at the University of Louisiana Lafayette. In the past, he has taught at the University of Illinois at Urbana-Champaign , Youngstown State University, Illinois Institute of Technology, and Union College.