Heat Transfer [E-Book] : A Modern Approach / by Martin Becker.
There have been significant changes in the academic environment and in the workplace related to computing. Further changes are likely to take place. At Rensselaer Polytechnic Institute, the manner in which the subject of heat transfer is presented is evolving so as to accommodate to and, indeed, to...
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Full text |
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Personal Name(s): | Becker, Martin, author |
Imprint: |
Boston, MA :
Springer,
1986
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Physical Description: |
440p. online resource. |
Note: |
englisch |
ISBN: |
9781468412567 |
DOI: |
10.1007/978-1-4684-1256-7 |
Subject (LOC): |
- One. Introduction
- Two. One-dimensional Heat conduction in Source-Free Media
- 2-1. Introduction
- 2-2. Fourier’s Law
- 2-3. Plane Geometry
- 2-4. Multilayered Walls
- 2-5. Convection at Surfaces
- 2-6. Cylindrical Geometry
- 2-7. Overall Heat Transfer Coefficient
- 2-8. Critical Radius of Insulation
- 2- 9. Contact Resistance
- Three. One-dimensional Heat Conduction Equation
- 3- 1. Introduction
- 3-2. Conservation of Energy
- 3-3. Heat Conduction Equation in General Geometries
- 3-4. Heat Conduction in a Plane Wall with a Source
- 3-6. Cylindrical Geometry
- 3-7. Heat Transfer from Fins—Negative Sources
- 3-8. Fins of Nonuniform Area—Tapered Fins
- 3-9. Fins of Nonuniform Area—Circumferential Fins
- 3- 10. Difference Approximations for Heat Conduction
- Four. Steady-State Conduction in more than One Dimension
- 4- 1. Introduction
- 4-2. Conduction Shape Factors
- 4-3. Separation of Variables
- 4-4. Problems with Internal Heat Sources
- 4- 5. Difference Approximation for More than One Dimension
- Five. Transient Heat Conduction
- 5- 1. Introduction
- 5-2. Lumped Parameters
- 5-3. Separation of Variables
- 5-4. Cylindrical and Spherical Geometries
- 5-5. Analytical Solution—Large Media
- 5-6. Multidimensional Problems
- 5- 7. Finite Difference Approximation
- Six. Elements of Convection—The Flat Plate
- 6- 1. Introduction
- 6-2. General Conservation Equation
- 6-3. Fluid Boundary Layer
- 6-4. Thermal Boundary Layer
- 6-5. Heat Transfer Coefficient
- 6-6. Relation to Friction
- 6-7. Liquid Metals
- 6-8. Turbulence
- 6-9. High-Speed Flow
- 6- 10. Analogies to Mass Transfer
- Seven. Forced Convection
- 7- 1. Introduction
- 7-2. Laminar Flow in a Long Tube
- 7-3. Entrance Effects
- 7-4. Turbulent Flow in Tubes
- 7-5. Flow across Bluff Bodies
- 7-6. Banks of Tubes
- 7-7. Liquid Metals
- Eight. Natural Convection
- 8-1. Introduction
- 8-2. Gravity and Boundary Layer Theory
- 8-3. Analysis for the Vertical Flat Plate
- 8-4. Vertical and Horizontal Surfaces
- 8-5. Inclined Surfaces
- 8-6. Enclosed Spaces
- 8-7. Free and Forced Convection
- Nine. Convection with Phase Changes
- 9- 1. Introduction
- 9-2. Condensation on a Vertical Surface
- 9- 3. Condensation with Horizontal Tubes
- 9-4. Boiling Process
- 9-5. Boiling Heat Transfer—Pool Boiling
- 9-6. Forced Convection Boiling
- Ten. Radiation
- 10-1. Introduction
- 10-2. Black Body Radiation
- 10-3. Shape Factors
- 10-4. Interaction among Grey Bodies—Reflection
- 10- 5. Radiation Shields
- 10-6. Interactions Involving Transmission
- 10- 7. Specular Reflection
- 10- 8. Gases
- Eleven. Heat Exchangers
- 11- 1. Introduction
- 11-2. Types of Heat Exchangers
- 11-3. Concentric Pipe Heat Exchanger
- 11-4. Log-Mean Temperature Difference and Other Types of Heat Exchangers
- 11-5. Heat Exchanger Effectiveness
- 11-6. Practical Operating Considerations—Fouling Factors
- 11-7. Variable Properties
- 11- 8. Averaging and Evaluating Properties
- Twelve. Heat Transfer Analysis and Design Problems
- 12- 1. Introduction
- 12-2. Heat Loss from Buildings
- 12-3. Heat Loss from Piping
- 12-4. Flat Plate Solar Collector
- 12-5. Summary
- Appendix A. Heat Transfer Data
- Appendix B. Mathematical Appendixes
- Appendix C. Selected Computer Routines
- Appendix D. Relationship between Spreadsheets and Explicit Programs
- Appendix E. Elements of spreadsheet usage
- Appendix F. Summary of parameters, Formulas, and Equations.