Journal of Applied Physics · 1995 · 48 citations · 14 references
Natural SciencesPhysicsComputational PhysicsHeat TransferThermodynamicsGreen's FunctionsHeat ConductionHeat Transfer FundamentalsHeat Transfer ModelingIntegral Equation FormulationsWave FunctionsDirichlet Green's FunctionsGreen's Function FormulationGreen's Function Representation FormulaGreen's Functions For Partial Differential EquationsIntegral Form FormulationNeumann Boundary ConditionsNeumann Green's FunctionsThermal Wave Propagation
A self-consistent integral formulation of Green’s functions in thermal wave-physics is presented in one, two, and three dimensions and for infinite, semi-infinite, and spatially bounded geometries. Furthermore, several applications are explicitly worked out based on either Dirichlet or Neumann boundary conditions and resulting in well-known or novel integral expressions for propagating thermal-wave fields in thermally homogeneous media and in experimentally useful geometries. It is hoped that the Green’s functions methodologies will enhance their use by investigators who wish to take advantage of their elegance, mathematical simplicity, and computational power.
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