AbstractThe problem of numerical identification of the transient heat boundary coefficient for the one-dimensional heat equation in a finite slab under nonlinear boundary conditions is examined on the basis of additional information regarding the solution. After measuring the temperature and the heat flux at the non-active boundary, the inverse heat conduction problem is solved using a fully explicit and stable space marching scheme based on a finite difference implementation of the Mollification Method, and the transient heat boundary coefficient is then approximately determined. Stability bounds are derived an several numerical examples to validate the technique provided
Abstract Nonlinear problems for the one-dimensional heat equation in a bounded and homogeneous mediu...
AbstractWe present a new numerical method based on discrete mollification for identification of para...
Surface maps of heat transfer coefficients (h) are often determined by transient liquid crystal or o...
An explicit and unconditionally stable finite difference method for the solution of the transient in...
AbstractAn inverse approach, based on a fully explicit and unconditionally stable finite difference ...
AbstractThis paper describes the reconstruction of the heat transfer coefficient (space, Problem I, ...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
AbstractThe one-dimensional inverse heat conduction problem (IHCP) for a slab is considered. A new s...
AbstractThe inverse heat conduction problem involves the calculation of surface heat flux and/or tem...
AbstractPhysical problems involving heat exchange between the ends of a rod and the surrounding envi...
67-71An iterative procedure is used to calculate the transient temperature in a finite slab with te...
We consider the inverse problem of determining the time-dependent thermal conductivity and the trans...
Diffusion processes with reaction generated by a nonlinear source are commonly encountered in practi...
The inverse heat conduction problem also frequently referred as the sideways heat equation, in shor...
AbstractWe consider the one-dimensional semi-infinite linear inverse heat conduction problem (IHCP) ...
Abstract Nonlinear problems for the one-dimensional heat equation in a bounded and homogeneous mediu...
AbstractWe present a new numerical method based on discrete mollification for identification of para...
Surface maps of heat transfer coefficients (h) are often determined by transient liquid crystal or o...
An explicit and unconditionally stable finite difference method for the solution of the transient in...
AbstractAn inverse approach, based on a fully explicit and unconditionally stable finite difference ...
AbstractThis paper describes the reconstruction of the heat transfer coefficient (space, Problem I, ...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
AbstractThe one-dimensional inverse heat conduction problem (IHCP) for a slab is considered. A new s...
AbstractThe inverse heat conduction problem involves the calculation of surface heat flux and/or tem...
AbstractPhysical problems involving heat exchange between the ends of a rod and the surrounding envi...
67-71An iterative procedure is used to calculate the transient temperature in a finite slab with te...
We consider the inverse problem of determining the time-dependent thermal conductivity and the trans...
Diffusion processes with reaction generated by a nonlinear source are commonly encountered in practi...
The inverse heat conduction problem also frequently referred as the sideways heat equation, in shor...
AbstractWe consider the one-dimensional semi-infinite linear inverse heat conduction problem (IHCP) ...
Abstract Nonlinear problems for the one-dimensional heat equation in a bounded and homogeneous mediu...
AbstractWe present a new numerical method based on discrete mollification for identification of para...
Surface maps of heat transfer coefficients (h) are often determined by transient liquid crystal or o...