- 传热学(英文版)
- - 作者：编者:唐春丽//李红明|责编:李经晶
  - 出版社：江苏大学
  - ISBN：9787568416795
  - 出版日期：2022/02/01
  - 页数：210
- 售价：23.2

内容大纲
    传热是指由于温度差引起的能量转移，又称热传递。由热力学第二定律可知，凡是有温度差存在时，热就必然从高温处传递到低温处，因此传热是自然界和工程技术领域中极普遍的一种传递现象。
    英文资料对传热的教学非常重要，因此作者编译了本教材，帮助同学们更好的学习传热学。
    本书具体从自然对流系统、对流传热原理等10章展开论述。
作者介绍
目录
CHAPTER 1  Introduction
  1.1  The subject of heat transfer
  1.2  Three modes of heat transfer
    1.2.1  Heat conduction
    1.2.2  Heat convection
    1.2.3  Thermal radiation
  1.3  Heat transfer process
  1.4  Thermal resistance analysis
    1.4.1  Thermal resistance
    1.4.2  Thermal resistance in series
    1.4.3  Thermal resistance in parallel
Review Questions
Problems
References
CHAPTER 2  Conduction Theory
  2.1  Temperature distribution
  2.2  Fourier's law
  2.3  Thermal conductivity
  2.4  Heat conduction differential equations for Cartesian coordinate system
  2.5  Heat conduction differential equations for cylindrical coordinate system
  2.6  Boundary conditions
Review Questions
Problems
References
CHAPTER 3  Steady-State Conduction
  3.1  One-dimensional steady state conduction
    3.1.1  One-dimensional single-layer plane slab
    3.1.2  Muhilayer plane slab
    3.1.3  The dimensional cylindrical tube
    3.1.4  The hollow sphere
    3.1.5  Multilayer cylindrical tube
3. 1.6  Contact resistance
  3.2  Heat source systems
    3.2.1  The plane slab with internal heat source
    3.2.2  The cylinder with internal heat source
  3.3  Heat transfer from fins
    3.3.1  Heat conduction through rectangular straight fins
    3.3.2  Fin efficiency and overall fin surface efficiency
  3.4  Multi-dimensional steady heat conduction
    3.4.1  Analysis methods for multi dimensional steady conduction
    3.4.2  Method of separation of variables
    3.4.3  Conduction shape factor
Review Questions
Problems
References
CHAPTER 4  Unsteady-State Heat Conduction
  4.1  Introduction
  4.2  Convection boundary conditions analysis for transient conduction
  4.3  Lumped-heat-capacity system
  4.4  One-dimensional transient heat conduction

    4.4.1  The infinite plane slab
    4.4.2  The long cylinder
    4.4.3  The sphere
    4.4.4  Engineering calculation method of transient heat conduction
  4.5  Semi-infinite transient heat conduction
  4.6  Multidimensional transient heat conduction
Review Questions
ProNems
References
CHAPTER 5  Principle of Convection Heat Transfer
  5.1  Introduction
  5.2  Equations for convection heat transferI4
    5.2.1  Convection heat transfer equation
    5.2.2  Energy equations for convection heat transfer
    5.2.3  Mass equation and momentum equations
  5.3  The boundary layer equations
  5.4  Velocity and temperature distribution in laminar boundary layer
  5.5  Analysis of turbulent heat transfer
Review Questions
Problems
References
CHAPTER 6  Empirical and Practical Relations for Forced-Convection
Heat Transfer
  6.1  Introduction
  6.2  Equation analysis method
  6.3  Empirical relations for internal flows
  6.4  Empirical relations for external flows
    6.4.1  Flow across a single cylinder or sphere
    6.4.2  Flow across tube banks
Review Questions
Problems
References
CHAPTER 7  Natural Convection System
  7.1  Introduction
  7.2  Natural convection heat transfer analysis on a vertical flat plate
  7.3  Empirical relations for natural convection heat transfer
    7.3.1  Large space natural convection with isothermal surfaces
    7.3.2  Natural convection with constant heat flux surfaces
    7.3.3  Natural convection in enclosed spaces
Review Questions
Problems
References
CHAPTER 8  Condensation and Boiling Heat Transfer
  8.1  Introduction
  8.2  Condensation heat transfer
    8.2.1  Film condensation
    8.2.2  Equations for the vertical wall
    8.2.3  Nusselt's solution for the vertical wall
    8.2.4  Laminar condensation for other geometries
    8.2.5  Transition and turbulence in a vertical film

    8.2.6  Influencing factors of film condensation
    8.2.7  Dropwise condensation
  8.3  Boiling heat transfer
    8.3.1  Saturated pool boiling curve
    8.3.2  Nucleate boiling correlations
    8.3.3  Critical heat flux prediction (CHF)
    8.3.4  Minimum heat flux: the Leidenfrost point
    8.3.5  Film boiling
    8.3.6  Effect of gravity
    8.3.7  Flowing boiling
    8.3.8  Enhancement of boiling heat transfer
  8.4  Heat Pipe
    8.4.1  Principle of heat pipe
    8.4.2  Thermal resistance analysis of heat pipe
Review Questions
Problems
References
CHAPTER 9  Radiation Heat Transfer
  9.1  Introduction
  9.2  Radiation characteristics of blackbody
    9.2.1  The Stefan-Boltzmann law
    9.2.2  Planck's blackbody spectral energy distribution
    9.2.3  Wien's displacement law
    9.2.4  Emission in a finite-wavelength band
    9.2.5  Directional radiation
  9.3  Radiation characteristics of real surfaces
    9.3.1  Emissivity
    9.3.2  Spectral emissivity
    9.3.3  Directional emissivity
    9.3.4  Absorption ratio
    9.3.5  Gray body
    9.3.6  Relationship between radiation and absorption--Kirchhoff's law
  9.4  Radiation shape factors
    9.4.1  Definition of shape factor
    9.4.2  Rules of shape factor
    9.4.3  Analytical evaluation of shape factors
  9.5  Radiation heat transfer between gray surfaces
    9.5.1  Radiation heat transfer for two-surface enclosure system
    9.5.2  Radiation heat transfer for multi-surface enclosure system
    9.5.3  Radiation shields
Review Questions
Problems
References
CHAPTER 10  Heat Transfer Process and Heat Exchangers
  10.1  Introduction and classification
  10.2  The overall heat transfer coefficient
  10.3  Mean temperature difference
    10.3.1  Single-pass exchangers:the LMTD
    10.3.2  Multiple passes:the LMTD correction factor
  10.4  Effectiveness/NTU method

  10.5  Consideration for heat exchanger design
Review Questions
Problems
References
Appendix A-Tables
Appendix B-Figures

内容大纲

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