AbstractThe inverse heat conduction problem involves the calculation of surface heat flux and/or temperature histories from transient, measured temperatures inside solids. We consider the one dimensional semi-infinite linear case and present a new solution algorithm based on a data filtering interpretation of the mollification method that automatically determines the radius of mollification depending on the amount of noise in the data and finite differences. A fully explicit and stable space marching scheme is developed. We describe several numerical experiments of interest showing that the new procedure is accurate and stable with respect to perturbations in the data even for small dimensionless time steps
The ill-posed problem of attempting to recover the temperature functions from one measured transient...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
The estimation of surface heat flux density or surface temperature utilizing temperature history ins...
AbstractThe inverse heat conduction problem involves the calculation of surface heat flux and/or tem...
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...
AbstractThe mollification method, originally developed for the solution of the inverse heat conducti...
AbstractThe one-dimensional inverse heat conduction problem (IHCP) for a slab is considered. A new s...
AbstractA procedure for the numerical solution of the one-dimensional inverse heat conduction proble...
AbstractWe consider the one-dimensional semi-infinite linear inverse heat conduction problem (IHCP) ...
AbstractA numerical space marching algorithm based on discrete mollification and automatic iterative...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
AbstractAdomian's decomposition approach is employed for solving some inverse boundary value problem...
AbstractThe mollification method, originally developed for the solution of the inverse heat conducti...
AbstractWe present a new numerical method based on discrete mollification for identification of para...
The ill-posed problem of attempting to recover the temperature functions from one measured transient...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
The estimation of surface heat flux density or surface temperature utilizing temperature history ins...
AbstractThe inverse heat conduction problem involves the calculation of surface heat flux and/or tem...
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...
AbstractThe mollification method, originally developed for the solution of the inverse heat conducti...
AbstractThe one-dimensional inverse heat conduction problem (IHCP) for a slab is considered. A new s...
AbstractA procedure for the numerical solution of the one-dimensional inverse heat conduction proble...
AbstractWe consider the one-dimensional semi-infinite linear inverse heat conduction problem (IHCP) ...
AbstractA numerical space marching algorithm based on discrete mollification and automatic iterative...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
AbstractAdomian's decomposition approach is employed for solving some inverse boundary value problem...
AbstractThe mollification method, originally developed for the solution of the inverse heat conducti...
AbstractWe present a new numerical method based on discrete mollification for identification of para...
The ill-posed problem of attempting to recover the temperature functions from one measured transient...
AbstractIt is shown that the usual data for the inverse Heat Conduction Problem (IHCP) uniquely defi...
The estimation of surface heat flux density or surface temperature utilizing temperature history ins...