Crowe Cengel Corrguide

8/13/2019 Crowe Cengel Corrguide

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11

Correlation Guidefor Users of Crowe-Elger-Roberson:

Engineering Fluid Mechanics, 7/e

corresponding to

McGraw-Hills

Fluid Mechanics:Fundamentals and Applications

byYunus A. engel and John M. Cimbala

Note:McGraw-HillsFluid Mechanicsby Yunus A. engel and John M. Cimbalaprovides a highlyvisual and intuitive coverage of fluid mechanics using a conversational writing style. The discussions are

supported by numerous real-world examples, photographs, and CFD-generated flow images. The DVDpackaged with the book includes several narrated, state-of-the-art videos including both

experimental footage and CFD animations, closely tied to the text content. The book includes anextensive Glossary where key phrases of fluid mechanics are defined for easy reference.

The following easy-to-read table shows what engel-Cimbala chapters and sections (rightcolumn) correspond to the Crowe et al. chapters and sections (left column).

Crowe Chapters and Sections engel-Cimbala Chapters and

Sections1 Introduction Chapter 11.1 Fluids 1-1

1.2 Flow Classification 1-4

1.3 Historical Note 1-3

1.4 Significance of Fluid Mechanics 1-1

1.5 Trends in Fluid Mechanics 1-3

2 Fluid Properties Chapters 1 and 22.1 Basic Units 1-6

2.2 System; Extensive and Intensive

Properties

1-5, 2-1

2.3 Properties Involving the Mass orWeight of the Fluid

1-6, 2-2

2.4 Properties Involving the Flow of

Heat

2-4

2.5 Viscosity 1-2, 2-6

2.6 Elasticity 2-5

2.7 Surface Tension 2-7

2.8 Vapor Pressure 2-3

3 Fluid Statics Chapter 3


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22

3.1 Pressure 3-1

3.2 Pressure Variation with Elevation 3-1, 3-3

3.3 Pressure Measurements 3-1, 3-2

3.4 Hydrostatic Forces on PlaneSurfaces

3-5

3.5 Hydrostatic Forces on CurvedSurfaces 3-6

3.6 Buoyancy 3-7

3.7 Stability of Immersed and FloatingBodies

3-7

4 Fluids in Motion Chapters 4, 5 and 94.1 Velocity and Flow Visualization 4-1, 4-2

4.2 Rate of Flow 5-2

4.3 Acceleration 4-1, 4-2

4.4 Basic Control-Volume Approach 4-5

4.5 Continuity Equation 4-2, 9-24.6 Rotation and Vorticity 4-4

4.7 Separation, Vortices, and

Turbulence

4-4

5 Pressure Variation in FlowingFluids

Chapters 3, 5, and 10

5.1 Basic Causes of Pressure Variationin a Flowing Fluid

3-1, 3-8

5.2 Examples of Pressure Variation

Resulting from Acceleration

3-8

5.3 Bernoulli Equation 5-4

5.4 Application of the Bernoulli

Equation

5-5

5.5 Separation and Its Effect on

Pressure Variation

10-4, 10-5

5.6 Cavitation 2-3, Application Spotlight near end of

Chapter 2

6 Momentum Principle Chapters 6 and 96.1 Momentum Equation: Derivation 6-1

6.2 Interpretation of the MomentumEquation 6-1

6.3 Typical Applications 6-2 through 6-4

6.4 Additional Applications 6-2 through 6-4

6.5 Moment-of-Momentum Equation 6-5, 6-6

6.6 NavierStokes Equations 9-5

7 Energy Principle Chapters 5 and 67.1 Derivation of the Energy Equation 5-6

7.2 Simplified Forms of the Energy 5-7


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33

Equation

7.3 Application of the Energy,

Momentum, and Continuity Equations

in Combination

6-4

7.4 Concept of the Hydraulic and

Energy Grade Lines

5-4

8 Dimensional Analysis and Similitude Chapter 78.1 The Need for Dimensional Analysis 7-1, 7-3

8.2 Dimensions and Equations 7-1

8.3 The BuckinghamTheorem 7-4

8.4 Dimensional Analysis 7-48.5 Common Dimensionless Numbers 7-4

8.6 Similitude 7-2

8.7 Model Studies for Flows Without

Free-Surface Effects

7-2

8.8 Significance of the PressureCoefficient 7-4

8.9 Approximate Similitude at High

Reynolds Numbers

7-2, 7-5

8.10 Free-Surface Model Studies 7-5

9 Surface Resistance Chapters 8 through 119.1 Introduction 8-1

9.2 Surface Resistance with Uniform

Laminar Flow

9-6, 10-6

9.3 Qualitative Description of the

Boundary Layer

10-6, 8-3

9.4 Quantitative Relations for theLaminar Boundary Layer

11-5, 10-6

9.5 Quantitative Relations for theTurbulent Boundary Layer

8-5, 10-6

9.6 Boundary-Layer Control 10-6

10 Flow in Conduits Chapter 810.1 Shear-Stress Distribution Across a

Pipe Section

8-2, 8-4

10.2 Laminar Flow in Pipes 8-2, 8-4

10.3 Criterion for Laminar or TurbulentFlow in a Pipe

8-2

10.4 Turbulent Flow in Pipes 8-5

10.5 Flow at Pipe Inlets and Losses

from Fittings

8-3, 8-6

10.6 Pipe Systems 8-7

10.7 Turbulent Flow in Noncircular

Conduits

8-5

11 Drag and Lift Chapters 11 and 15


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44

11.1 Basic Considerations 11-1

11.2 Drag of Two-Dimensional Bodies 11-1, 11-2

11.3 Vortex Shedding from Cylindrical

Bodies

15-2, 15-3

11.4 Effect of Streamlining 11-3

11.5 Drag of Axisymmetric and Three-Dimensional Bodies 11-4

11.6 Terminal Velocity 11-4

11.7 Effect of Compressibility on Drag 15-5

11.8 Lift 11-2, 11-7

12 Compressible Flow Chapter 1212.1 Wave Propagation in

Compressible Fluids

12-2

12.2 Mach-Number Relationships 12-2, 12-3

12.3 Normal Shock Waves 12-5

12.4 Isentropic Compressible FlowThrough a Duct with Varying Area 12-4

12.5 Compressible Flow in a Pipe with

Friction

12-7

13 Flow Measurements Chapters 1, 3, 8, 12, and 1313.1 Instruments for the Measurement

of Velocity and Pressure

3-2, 8-8

13.2 Instruments and Procedures forMeasurement of Flow Rate

8-8, 13-9

13.3 Measurement in Compressible

Flow

12-4

13.4 Accuracy of Measurements 1-10

14 Turbomachinery Chapter 1414.1 Propeller Theory 14-1, 14-2

14.2 Axial-Flow Pumps 14-2

14.3 Radial-Flow Machines 14-2

14.4 Specific Speed 14-3

14.5 Suction Limitations of Pumps 14-2

14.6 Turbines 14-4

14.7 Viscous Effects 14-2, 14-4

15 Varied Flow in Open Channels Chapter 1315.1 Energy Relations in OpenChannels

13-3, 13-4

15.2 The Hydraulic Jump 13-6, 13-8

15.3 Surge or Tidal Bore 13-2

15.4 Gradually Varied Flow in Open

Channels

13-7

Documents

Crowe Cengel Corrguide