
The goal of the authors is to introduce a Newton method in computing the stationary points of a total energy with respect to the shape. The authors formulate a precise description of the second order shape derivative. It is given by a symmetric boundary integral operator, useful for numerical calculations. This method is applied to a particular shape optimization problem, the electromagnetic casting problem.
Numerical optimization and variational techniques, boundary integral operator, Parallel numerical computation, Optimization problems in optics and electromagnetic theory, Newton-type methods, Technical applications of optics and electromagnetic theory, Optimization of shapes other than minimal surfaces, Newton method, shape optimization, parallel computation, electromagnetic casting
Numerical optimization and variational techniques, boundary integral operator, Parallel numerical computation, Optimization problems in optics and electromagnetic theory, Newton-type methods, Technical applications of optics and electromagnetic theory, Optimization of shapes other than minimal surfaces, Newton method, shape optimization, parallel computation, electromagnetic casting
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| influence This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically). | Top 10% | |
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