The main objective of this study is to develop a mathematical model for the simulation of the thermal characteristics of two-phase capillary pumped devices. The mathematical model presented in this paper is an extension of the earlier mathematical model developed for a conventional heat pipe. The three-dimensional incompressible energy, momentum and mass conservation equations are solved by using the finite element method. Except in the wick region, the viscous terms in the governing equations are neglected. However, the pressure drops due to frictional losses are introduced. The interface between vapor and liquid phases is assumed static and only converged steady-state solutions are retained. The reservoir dynamic is not modeled. The energy, momentum and mass jump conditions are written across the interface. The resulting set of equations is solved iteratively until the overall mass conservation is satisfied between the evaporator and condenser. Copyright

Additional Metadata
Persistent URL dx.doi.org/10.4271/2004-01-2553
Journal SAE Technical Papers
Citation
Kaya, T, Goldak, J, & Macdonald, E. (Erin). (2004). Mathematical modeling of the two-phase capillary-pumped heat transfer devices. In SAE Technical Papers. doi:10.4271/2004-01-2553