John R. Howell, Robert Siegel, and M. Pinar Mengüç, Thermal Radiation Heat Transfer. CRC Press Taylor & Francis, Boca Raton, 5th ed., 2011
John R. Howell, Robert Siegel, and M. Pinar Mengüç, Thermal Radiation Heat Transfer. CRC Press Taylor & Francis, Boca Raton, 5th ed., 2011
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John R. Howell、Robert Siegel 和 M. Pinar Menüç,《热辐射传热》,CRC Press Taylor & Francis,博卡拉顿,第 5 版,2011 年
DOI:
10.1002/zamm.201290025
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发表时间:
2012
影响因子:
2.3
通讯作者:
B. Platzer
中科院分区:
文献类型:
--
作者:
B. Platzer
The book contains 17 chapters and 5 appendices. In the 5th edition extensive revisions are made. Some new developments are included and some material has moved to a website to be available for download. Beginning with an introduction, remarks are made on the fundamentals of radiation using a blackbody. The basic laws are shown. The detailed examination of the radiative behaviour of real bodies and of opaque materials follows. The radiative properties of surfaces are characterised and some experimental values are presented. Thereafter, the radiation interchange is described between some geometries and for surfaces with different properties. Here, the concept of configuration factors is introduced and extensively used for radiation exchange cases in enclosures. Problems follow where radiation is combined with heat sinks due to conduction and/or convection at boundaries. The equations for some fin geometries and heated radiation tubes are given. The part dealing with inverse problems in radiative heat transfer is new. Different inverse techniques are presented.Furthermore, the radiation properties of gases and liquids are discussed including alternatives for calculation of these characteristics for the often useful case of local thermodynamic equilibrium. Then, the equations are developed for the radiation intensity along a path through semitransparent media for different conditions. Applications are made for radiative transfer in plane layers and multidimensional geometries also in combination with conduction or convection. Simplified relations are possible and derived for optically thin and thick media. For media with intermediate optical thickness numerical methods are demonstrated. The discussions of the electromagnetic theory in radiative transfer, of absorption and scattering by particles, and of nearfield thermal radiation are newly added. At last, the description of radiative effects in translucent solids, windows, and coatings follows. The appendices contain constants, configuration factors, and some functions. Various cases and solution methods are discussed. Some examples and much homework at the end of each chapter are given. The answers of the homework are included for most cases, too. The book gives a very good and detailed summary. It is very useful for students and researchers and is highly recommended.