Key developments in computational electromagnetics are proposed. Historical highlights are summarized concentrating on the two main approaches of differential and integral methods. This is seen as timely as a retrospective analysis is needed to minimize duplication and to help settle questions of attribution

Sykulski, J.K.

Trowbridge, C.W.

English

Southampton (e-Prints Soton)

2nd Reno Conf. Analysis of Magnetic Fields,

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A ﬁnite element method for computing three-dimensional electromagnetic ﬁelds in inhomogeneous media,”

A general theory of ﬁnite elements,”

A method of estimating the total AC loss in a high-temperature superconducting transformer winding,”

A mixed FEM-BIEM method to solve 3-D eddy current problem,”

A new neural-network-based scalar hysteresis model,”

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A new version of the fast multipole method for the laplace equation

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Calculation of inductance and capacitance by means of dual energy principles,”

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Cutting multiply connected domains,”

Differential forms and electromagnetism

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Finite element analysis of steady state effect in a slot-embedded conductor,”

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Finite formulation of electromagnetic ﬁeld,”

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Time domainelectromagnetic ﬁeld computation with ﬁnite difference methods,”

Transmission line modeling using unstructured meshes,”

Whitney forms: A class of ﬁnite elements for three-dimensional computations in electromagnetism,”

Yee-like schemes on a tetrahedral mesh, with diagonal lumping,”

Some Key Developments in Computational Electromagnetics and their Attribution

Some Key Developments in Computational Electromagnetics and their Attribution

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