超奇异单积分方程与介电楔

E. Marx
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引用次数: 3

摘要

计算了有限介电楔散射的场,并比较了两种不同积分方程的结果。未知的边界函数要么是辅助场的法向导数在边界上的跳跃要么是场本身的跳跃。在后一种情况下,其中一个积分是超奇异的。用两种不同的方法得到的结果进行了比较的90度介电楔形端接一个匹配的圆柱形表面。数值实验表明,两种完全不同的积分方程的计算结果吻合得相当好,与静态极限的不一致可能是真实存在的,而不是由于计算误差造成的。超奇异积分方程可以提供更准确的结果,因为未知的边界函数在楔形边缘不发散,尽管积分更奇异。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The hypersingular single integral equation and the dielectric wedge
The fields scattered by a finite dielectric wedge are computed, and the results obtained by using two different integral equations are compared. The unknown boundary function is either the jump eta in the normal derivative of the auxiliary field across the boundary or the jump phi in the field itself. In the latter case, one of the integrals is hypersingular. The results obtained using the two different methods are compared for a 90 degrees dielectric wedge terminated by a matching cylindrical surface. The numerical experiments indicate that the results obtained by the two quite different integral equations agree reasonably well, and it is concluded that disagreements with the static limit probably are real, that is, not due to errors in the calculations. The hypersingular integral equation may provide more accurate results because the unknown boundary function does not diverge at the edge of the wedge, although the integrals are more singular.<>
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