In this paper we investigate an application of the method of fundamental solutions (MFS) to transient heat conduction in layered materials. where the thermal diffusivity is piecewise constant. Recently, in Johansson and Lesnic [A method of fundamental solutions for transient heat conduction. Eng Anal Boundary Elem 2008;32:697-703], a MFS was proposed with the sources placed outside the space domain of interest, and we extend that technique to numerically approximate the heat flow in layered materials. Theoretical properties of the method, as well as numerical investigations are included. (C) 2009 Elsevier Ltd. All rights reserved
We consider diffusion through multiple layers, with application to heat transport. An exact solution...
The accuracy of approximate calculations of transient temperature distributions in solids is studied...
We consider diffusion through multiple layers, with application to heat transport. An exact solution...
In this paper we investigate an application of the method of fundamental solutions (MFS) to transien...
<div style="font-size: 14.9433px; font-family: serif; left: 199.25px; top: 651.829px; transform: rot...
<div style="font-size: 14.9433px; font-family: serif; left: 199.25px; top: 651.829px; transform: rot...
This paper presents analytical Green's functions for the transient heat transfer phenomena by conduc...
A new simple analytical method for solving the problem of one-dimensional transient heat conduction ...
AbstractIn this paper, we investigate the application of the method of fundamental solutions (MFS) t...
This paper presents analytical Green's functions for the transient heat transfer phenomena by conduc...
A method of analysis is described which yields closed-form solutions for two-dimensional heat conduc...
This paper analyses heat transfer across multilayer systems when boundary conditions are unsteady. T...
In this article, we propose a novel meshless method for solving two-dimensional stationary heat cond...
In this article, we propose a novel meshless method for solving two-dimensional stationary heat cond...
This article presents a closed form analytical solution for one-dimensional transient heat conductio...
We consider diffusion through multiple layers, with application to heat transport. An exact solution...
The accuracy of approximate calculations of transient temperature distributions in solids is studied...
We consider diffusion through multiple layers, with application to heat transport. An exact solution...
In this paper we investigate an application of the method of fundamental solutions (MFS) to transien...
<div style="font-size: 14.9433px; font-family: serif; left: 199.25px; top: 651.829px; transform: rot...
<div style="font-size: 14.9433px; font-family: serif; left: 199.25px; top: 651.829px; transform: rot...
This paper presents analytical Green's functions for the transient heat transfer phenomena by conduc...
A new simple analytical method for solving the problem of one-dimensional transient heat conduction ...
AbstractIn this paper, we investigate the application of the method of fundamental solutions (MFS) t...
This paper presents analytical Green's functions for the transient heat transfer phenomena by conduc...
A method of analysis is described which yields closed-form solutions for two-dimensional heat conduc...
This paper analyses heat transfer across multilayer systems when boundary conditions are unsteady. T...
In this article, we propose a novel meshless method for solving two-dimensional stationary heat cond...
In this article, we propose a novel meshless method for solving two-dimensional stationary heat cond...
This article presents a closed form analytical solution for one-dimensional transient heat conductio...
We consider diffusion through multiple layers, with application to heat transport. An exact solution...
The accuracy of approximate calculations of transient temperature distributions in solids is studied...
We consider diffusion through multiple layers, with application to heat transport. An exact solution...