Steady-state Green’s function solution for moving media with axial conduction
✍ Scribed by A. Haji-Sheikh; J.V. Beck; K.D. Cole
- Publisher
- Elsevier Science
- Year
- 2010
- Tongue
- English
- Weight
- 440 KB
- Volume
- 53
- Category
- Article
- ISSN
- 0017-9310
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✦ Synopsis
The objective of this presentation is the development of a generalized steady-state Green's function solution to study the temperature field in moving bodies. This type of solution permits the inclusion of different non-homogeneous boundary conditions, volumetric heat sources, and possible position-dependent thermophysical properties. Although the mathematical formulation is for moving solids, it can be used to study the heat transfer in a moving fluid with a non-uniform velocity distribution passing through a micro-channel or fluid-saturated porous ducts. Additionally, this presentation includes the application of this Green's function solution to acquire numerical information for selected examples to further illustrate the numerical details.
📜 SIMILAR VOLUMES
The dyadic Green's function for cylindrical waveguides of circular or rectangular cross section with a moving, isotropic, homogeneous medium is developed using the method of eigenfunction expansion. The orthogonality properties of the vector mode functions are discussed. In contrast to waveguides wi
## Abstract The problem of calculating the steady‐state two‐dimensional temperature field in a thermally isotropic bimaterial which has a homogeneously imperfect interface is considered. There is a temperature jump across the imperfect interface. To devise a boundary element method, which does not