Lucido Mario, Kobayashi Kazuya, Nosich Alexander I, Pérez Arancibia Carlos, Vukovic Ana
Department of Electrical and Information Engineering "Maurizio Scarano", University of Cassino and Southern Lazio, Cassino, Italy.
EUt+ Institute of Nanomaterials and Nanotechnologies-EUTINN, European University of Technology, European Union.
Philos Trans A Math Phys Eng Sci. 2025 Aug 14;383(2303):20240356. doi: 10.1098/rsta.2024.0356.
This Theme Issue is a collection of original research and review papers focused on developing a class of well-established and innovative analytically grounded full-wave methods and their applications in computational electromagnetics. These methods are notable for their guaranteed convergence, meaning that the approximate solution obtained by discretizing and truncating the equation governing the problem at hand tends to the exact solution if the truncation order gets larger. Hence, unlike the numerical approximations with no mathematically guaranteed convergence, they do not require post-validation. Moreover, highly accurate solutions are reconstructed with a low computational cost, thus allowing a real-time, precise and exhaustive parametric analysis of various critical structures and complicated physical phenomena. To conclude, the obtained solutions deliver trusted physical results within a reasonable time and without false effects and, therefore, can serve as a reference for validating general-purpose commercial software.This article is part of the theme issue 'Analytically grounded full-wave methods for advances in computational electromagnetics'.
本期专题汇集了一系列原创研究论文和综述论文,重点是开发一类成熟且创新的基于解析的全波方法及其在计算电磁学中的应用。这些方法以其保证收敛性而著称,这意味着通过离散化和截断手头问题的 governing 方程获得的近似解在截断阶数增大时趋向于精确解。因此,与没有数学保证收敛性的数值近似不同,它们不需要事后验证。此外,能够以低计算成本重建高精度解,从而允许对各种关键结构和复杂物理现象进行实时、精确和详尽的参数分析。总之,所获得的解在合理时间内提供可信的物理结果且无虚假效应,因此可作为验证通用商业软件的参考。本文是“基于解析的全波方法推动计算电磁学进展”专题的一部分。