Atjaunināt sīkdatņu piekrišanu

Fluid Mechanics [Multiple-component retail product, part(s) enclosed]

(Jauns izdevums: 9781292089355)
4.33/5 (12 ratings by Goodreads)
  • Formāts: Multiple-component retail product, part(s) enclosed, 928 pages, height x width x depth: 10x10x10 mm, weight: 1501 g, illustrations, Contains 1 Hardback and 1 Miscellaneous print
  • Izdošanas datums: 20-Feb-2014
  • Izdevniecība: Pearson
  • ISBN-10: 0132777622
  • ISBN-13: 9780132777629 (Jauns izdevums: 9781292089355)
Citas grāmatas par šo tēmu:
  • Multiple-component retail product, part(s) enclosed
  • Cena: 215,96 €
  • Grāmatu piegādes laiks ir 3-4 nedēļas, ja grāmata ir uz vietas izdevniecības noliktavā. Ja izdevējam nepieciešams publicēt jaunu tirāžu, grāmatas piegāde var aizkavēties.
  • Daudzums:
  • Ielikt grozā
  • Piegādes laiks - 4-6 nedēļas
  • Pievienot vēlmju sarakstam
Fluid MechanicsPalielināt
  • Formāts: Multiple-component retail product, part(s) enclosed, 928 pages, height x width x depth: 10x10x10 mm, weight: 1501 g, illustrations, Contains 1 Hardback and 1 Miscellaneous print
  • Izdošanas datums: 20-Feb-2014
  • Izdevniecība: Pearson
  • ISBN-10: 0132777622
  • ISBN-13: 9780132777629 (Jauns izdevums: 9781292089355)
Citas grāmatas par šo tēmu:
Permanent link: https://www.kriso.lv/db/9780132777629.html
Keywords:

Fluid Mechanics is intended for use in Fluid Mechanics courses found in Civiland Environmental, General Engineering, and Engineering Technology and Industrial Management departments. It is also serves as a suitable reference and introduction to Fluid Mechanics principles.

Fluid Mechanics provides a comprehensive and well-illustrated introduction to the theory and application of Fluid Mechanics. The text presents a commitment to the development of student problem-solving skills and features many of the same pedagogical aids unique to Hibbeler texts.

MasteringEngineering forFluid Mechanics is a total learning package that is designed to improve results through personalized learning. This innovative online program emulates the instructor’s office–hour environment, guiding students through engineering concepts fromFluid Mechanics with self-paced individualized coaching.

Teaching and Learning Experience

This program will provide a better teaching and learning experience—for you and your students. It provides:

  • Individualized Coaching: MasteringEngineering provides students with wrong-answer specific feedback and hints as they work through tutorial homework problems.
  • Problem Solving: A large variety of problem types stress practical, realistic situations encountered in professional practice, with varying levels of difficulty.
  • Visualization: The photos are designed to help students visualize difficult concepts.
  • Review and Student Support:A thorough end-of-chapter review provides students with a concise reviewing tool.
  • Accuracy Checking:The accuracy of the text and problem solutions has been thoroughly checked by other parties.
  • Alternative Coverage: After covering the basic principles in Chapters 1-6, the remaining chapters may be presented in any sequence, without the loss of continuity.

Note: You are purchasing a standalone product; MasteringEngineeringdoes not come automatically packaged with this content. If you would like to purchaseboth the physical text and MasteringEngineering search for ISBN-10: 0133770001 /ISBN-13: 9780133770001. That package includes ISBN-10: 0132777622 /ISBN-13: 9780132777629 and ISBN-10: 0133820807 /ISBN-13: 9780133820805. MasteringEngineering is not a self-paced technology and should only be purchased when required by an instructor.

1 Fundamental Concepts
3(44)
Chapter Objectives
3(1)
1.1 Introduction
3(2)
1.2 Characteristics of Matter
5(1)
1.3 Systems of Units
6(4)
1.4 Calculations
10(2)
1.5 Problem Solving
12(2)
1.6 Basic Fluid Properties
14(5)
1.7 Viscosity
19(5)
1.8 Viscosity Measurement
24(4)
1.9 Vapor Pressure
28(1)
1.10 Surface Tension and Capillarity
29(18)
2 Fluid Statics
47(94)
Chapter Objectives
47(1)
2.1 Pressure
47(3)
2.2 Absolute and Gage Pressure
50(2)
2.3 Static Pressure Variation
52(1)
2.4 Pressure Variation for Incompressible Fluids
53(2)
2.5 Pressure Variation for Compressible Fluids
55(3)
2.6 Measurement of Static Pressure
58(8)
2.7 Hydrostatic Force on a Plane Surface---Formula Method
66(6)
2.8 Hydrostatic Force on a Plane Surface---Geometrical Method
72(5)
2.9 Hydrostatic Force on a Plane Surface---Integration Method
77(3)
2.10 Hydrostatic Force on an Inclined Plane or Curved Surface Determined by Projection
80(7)
2.11 Buoyancy
87(3)
2.12 Stability
90(3)
2.13 Constant Translational Acceleration of a Liquid
93(5)
2.14 Steady Rotation of a Liquid
98(43)
3 Kinematics of Fluid Motion
141(36)
Chapter Objectives
141(1)
3.1 Fluid Flow Descriptions
141(2)
3.2 Types of Fluid Flow
143(3)
3.3 Graphical Descriptions of Fluid Flow
146(8)
3.4 Fluid Acceleration
154(7)
3.5 Streamline Coordinates
161(16)
4 Conservation of Mass
177(46)
Chapter Objectives
177(1)
4.1 Finite Control Volumes
177(3)
4.2 The Reynolds Transport Theorem
180(6)
4.3 Volumetric Flow, Mass Flow, and Average Velocity
186(4)
4.4 Conservation of Mass
190(33)
5 Work and Energy of Moving Fluids
223(70)
Chapter Objectives
223(1)
5.1 Euler's Equations of Motion
223(4)
5.2 The Bernoulli Equation
227(3)
5.3 Applications of the Bernoulli Equation
230(12)
5.4 Energy and Hydraulic Grade Lines
242(8)
5.5 The Energy Equation
250(43)
6 Fluid Momentum
293(62)
Chapter Objectives
293(1)
6.1 The Linear Momentum Equation
293(2)
6.2 Applications to Bodies at Rest
295(10)
6.3 Applications to Bodies Having Constant Velocity
305(5)
6.4 The Angular Momentum Equation
310(8)
6.5 Propellers and Wind Turbines
318(5)
6.6 Applications for Control Volumes Having Accelerated Motion
323(1)
6.7 Turbojets and Turbofans
324(1)
6.8 Rockets
325(30)
7 Differential Fluid Flow
355(74)
Chapter Objectives
355(1)
7.1 Differential Analysis
355(1)
7.2 Kinematics of Differential Fluid Elements
356(4)
7.3 Circulation and Vorticity
360(4)
7.4 Conservation of Mass
364(2)
7.5 Equations of Motion for a Fluid Particle
366(2)
7.6 The Euler and Bernoulli Equations
368(4)
7.7 The Stream Function
372(5)
7.8 The Potential Function
377(4)
7.9 Basic Two-dimensional Flows
381(11)
7.10 Superposition of Flows
392(10)
7.11 The Navier-Stokes Equations
402(4)
7.12 Computational Fluid Dynamics
406(23)
8 Dimensional Analysis and Similitude
429(40)
Chapter Objectives
429(1)
8.1 Dimensional Analysis
429(3)
8.2 Important Dimensionless Numbers
432(3)
8.3 The Buckingham Pi Theorem
435(9)
8.4 Some General Considerations Related to Dimensional Analysis
444(1)
8.5 Similitude
445(24)
9 Viscous Flow within Enclosed Surfaces
469(48)
Chapter Objectives
469(1)
9.1 Steady Laminar Flow between Parallel Plates
469(6)
9.2 Navier--Stokes Solution for Steady Laminar Flow between Parallel Plates
475(5)
9.3 Steady Laminar Flow within a Smooth Pipe
480(4)
9.4 Navier--Stokes Solution for Steady Laminar Flow within a Smooth Pipe
484(2)
9.5 The Reynolds Number
486(5)
9.6 Fully Developed Flow from an Entrance
491(2)
9.7 Laminar and Turbulent Shear Stress within a Smooth Pipe
493(3)
9.8 Turbulent Flow within a Smooth Pipe
496(21)
10 Analysis and Design for Pipe Flow
517(52)
Chapter Objectives
517(1)
10.1 Resistance to Flow in Rough Pipes
517(11)
10.2 Losses Occurring from Pipe Fittings and Transitions
528(6)
10.3 Single-Pipeline Flow
534(6)
10.4 Pipe Systems
540(6)
10.5 Flow Measurement
546(23)
11 Viscous Flow over External Surfaces
569(78)
Chapter Objectives
569(1)
11.1 The Concept of the Boundary Layer
569(6)
11.2 Laminar Boundary Layers
575(9)
11.3 The Momentum Integral Equation
584(4)
11.4 Turbulent Boundary Layers
588(2)
11.5 Laminar and Turbulent Boundary Layers
590(6)
11.6 Drag and Lift
596(2)
11.7 Pressure Gradient Effects
598(4)
11.8 The Drag Coefficient
602(4)
11.9 Drag Coefficients for Bodies Having Various Shapes
606(7)
11.10 Methods for Reducing Drag
613(3)
11.11 Lift and Drag on an Airfoil
616(31)
12 Open-Channel Flow
647(60)
Chapter Objectives
647(1)
12.1 Types of Flow in Open Channels
647(2)
12.2 Open-Channel Flow Classifications
649(1)
12.3 Specific Energy
650(8)
12.4 Open-Channel Flow over a Rise or Bump
658(4)
12.5 Open-Channel Flow under a Sluice Gate
662(4)
12.6 Steady Uniform Channel Flow
666(7)
12.7 Gradual Flow with Varying Depth
673(7)
12.8 The Hydraulic Jump
680(5)
12.9 Weirs
685(22)
13 Compressible Flow
707(94)
Chapter Objectives
707(1)
13.1 Thermodynamic Concepts
707(9)
13.2 Wave Propagation through a Compressible Fluid
716(3)
13.3 Types of Compressible Flow
719(4)
13.4 Stagnation Properties
723(7)
13.5 Isentropic Flow through a Variable Area
730(5)
13.6 Isentropic Flow through Converging and Diverging Nozzles
735(9)
13.7 The Effect of Friction on Compressible Flow
744(10)
13.8 The Effect of Heat Transfer on Compressible Flow
754(6)
13.9 Normal Shock Waves
760(3)
13.10 Shock Waves in Nozzles
763(5)
13.11 Oblique Shock Waves
768(5)
13.12 Compression and Expansion Waves
773(5)
13.13 Compressible Flow Measurement
778(23)
14 Turbomachines
801(43)
Chapter Objectives
801(1)
14.1 Types of Turbomachines
801(1)
14.2 Axial-Flow Pumps
802(6)
14.3 Radial-Flow Pumps
808(2)
14.4 Ideal Performance for Pumps
810(5)
14.5 Turbines
815(6)
14.6 Pump Performance
821(3)
14.7 Cavitation and the Net Positive Suction Head
824(2)
14.8 Pump Selection Related to the Flow System
826(2)
14.9 Turbomachine Similitude
828(16)
Appendix
A Physical Properties of Fluids
844(6)
B Compressible Properties of a Gas (k = 1.4)
850(10)
Fundamental Solutions 860(15)
Answers to Selected Problems 875(17)
Index 892
R.C. Hibbeler graduated from the University of Illinois at Urbana with a BS in Civil Engineering (major in Structures) and an MS in Nuclear Engineering. He obtained his PhD in Theoretical and Applied Mechanics from Northwestern University. Hibbeler's 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 Sargent and Lundy in Chicago. He has practiced engineering in Ohio, New York, and Louisiana. 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, Youngstown State University, Illinois Institute of Technology, and Union College.