As a guest user you are not logged in or recognized by your IP address. You have
access to the Front Matter, Abstracts, Author Index, Subject Index and the full
text of Open Access publications.
The motivation of this work is to develop a computational treatment of eddy current simulation applicable to complex 3D geometries. To this end, an approach based on surface integral equations and involving the homogeneous full-space Green's function and dyad is developed. A Galerkin variant of the method of moments, using bilinear basis functions, is employed for discretizing the surface integral equations, leading to a linear system. Solving the linear system using a direct matrix solver is prohibitively expensive in computing time and memory resources. This difficulty is circumvented by using an iterative solver (typically GMRES) together with the Fast Multipole Method (FMM). The response of an eddy current probe is finally expressed with the Auld reciprocity theorem.
This website uses cookies
We use cookies to provide you with the best possible experience. They also allow us to analyze user behavior in order to constantly improve the website for you. Info about the privacy policy of IOS Press.
This website uses cookies
We use cookies to provide you with the best possible experience. They also allow us to analyze user behavior in order to constantly improve the website for you. Info about the privacy policy of IOS Press.