Scholarlink

<p>For swift and robust electromagnetic compatibility analysis of power electronic systems, we propose a&#xa0;novel complex spectral excitation approach. The Two-Step Spectral Excitation Technique method alleviates the convergence problems and lengthy simulation times inherent to traditional transient simulations. In the first step, equivalent spectral sources are derived from the functional power electronics (PE) system’s steady-state transient behavior. In the second step, these sources excite frequency-domain simulations that efficiently incorporate parasitic elements for comprehensive electromagnetic compatibility (EMC) studies. The method enables EMC analysis for fixed operating conditions, allowing rapid evaluation of modifications such as parasitic effects and filter designs that do not alter the fundamental switching behavior. The method’s effectiveness is demonstrated through two industrial case studies, enabling rapid filter design, sensitivity analysis, and root-cause investigation of electromagnetic interference (EMI) phenomena.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Rapid EMC simulation technique for multi-component power electronic systems

  • 期刊论文

  • 发表日期：

    2026年2月3日

查看全文
  • Christoph Keller,
  • Yvonne Späck-Leigsnering,
  • Konstantin Spanos

摘要

For swift and robust electromagnetic compatibility analysis of power electronic systems, we propose a novel complex spectral excitation approach. The Two-Step Spectral Excitation Technique method alleviates the convergence problems and lengthy simulation times inherent to traditional transient simulations. In the first step, equivalent spectral sources are derived from the functional power electronics (PE) system’s steady-state transient behavior. In the second step, these sources excite frequency-domain simulations that efficiently incorporate parasitic elements for comprehensive electromagnetic compatibility (EMC) studies. The method enables EMC analysis for fixed operating conditions, allowing rapid evaluation of modifications such as parasitic effects and filter designs that do not alter the fundamental switching behavior. The method’s effectiveness is demonstrated through two industrial case studies, enabling rapid filter design, sensitivity analysis, and root-cause investigation of electromagnetic interference (EMI) phenomena.