Journal of Fluid Mechanics · 2012 · 18 citations · 19 references
EngineeringFluid MechanicsTemperature Jump RelationRarefied FlowThermodynamic ModellingMolecular ThermodynamicsGas DynamicNumerical SimulationTransport PhenomenaThermophysicsThermodynamicsThermal ModelingThermodynamic EquilibriumPhysicsDilute GasHeat TransferMultiphase FlowMonte Carlo MethodApplied PhysicsThermal EngineeringHomogeneous Heat ConductionJump Coefficient
Abstract We use LVDSMC (low-variance deviational Monte Carlo) simulations to calculate, under linearized conditions, the second-order temperature jump coefficient for a dilute gas whose temperature is governed by the Poisson equation with a constant forcing term, as in the case of homogeneous volumetric heating. Both the hard-sphere gas and the BGK model of the Boltzmann equation, for which slip/jump coefficients are not functions of temperature, are considered. The temperature jump relation and jump coefficient determined here are closely linked to the general jump relations for time-dependent problems that have yet to be systematically treated in the literature; as a result, they are different from those corresponding to the well-known linear and steady case where the temperature is governed by the homogeneous heat conduction (Laplace) equation.
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Micro Flows: Fundamentals and Simulation
GEM Karniadakis, Ali Beşkök, Mohamed Gad‐el‐Hak · Applied Mechanics Reviews · 2002 · 702 citations · Full text
Rarefied Flow, Engineering, Physics +15
Taku Ohwada, Yoshio Sone, Kazuo Aoki · Physics of Fluids A Fluid Dynamics · 1989 · 339 citations
Taku Ohwada, Yoshio Sone, Kazuo Aoki · Physics of Fluids A Fluid Dynamics · 1989 · 215 citations