Modern RF and electromagnetic systems --- such as 5G/6G antenna arrays, high-power microwave components, heterogeneous integration platforms, and quantum-enabled devices --- require accurate modeling of complex multiphysics coupling effects, including electromagnetics, thermal, structural, fluid, and circuit interactions. Traditional single-physics approaches are no longer sufficient to meet the increasing demands for accuracy, reliability, and computational efficiency.
This special session focuses on advanced multiphysics modeling and simulation techniques for RF and electromagnetic systems, spanning fundamental numerical methods to high-performance and AI-driven intelligent computing approaches. We aim to provide a platform for presenting innovative algorithms, scalable computational frameworks, and engineering applications.
Topics of interest include (but are not limited to):
- Efficient numerical methods for multiphysics electromagnetic simulation
- Multiscale modeling and cross-domain coupling techniques
- High-performance computing (GPU/CPU heterogeneous and parallel algorithms)
- Machine learning and AI-enhanced electromagnetic simulation
- Uncertainty quantification and robust design
- Applications in antennas, microwave circuits, aerospace, optoelectronic, energy, and automotive systems
