activity
20142024
most citedInverse Design of Frequency Selective Surface Using Physics-Informed Neural Networks

1 citations · 2 across the 9 of their papers we have counts for

collaborators

9 papers

physics.optics2024

Double-Helix Singularity and Vortex-Antivortex Annihilation in Space-Time Helical Pulses

Shuai Shi, Ren Wang, Minhui Xiong +3

Topological structures reveal the hidden secrets and beauty in nature, such as the double helix in DNA, whilst, the manipula-tion of which in physical fields, especially in ultrafa…

physics.optics20241 cited

Hybrid electromagnetic toroidal vortices

Ren Wang, Beier Ying, Shuai Shi +4

The ubiquitous occurrence of toroidal vortices or vortex rings in fluid-dynamic scenarios in nature has garnered significant attention of scientific frontier, whilst, the electroma…

physics.app-ph2024

Simultaneous Localization and Recognition of Subwavelength Non-Cooperative Entities Based on SISO Time Reversal and Neural Networks

Yinchen Wang, Yu Duan, Yu-Qi Ye +5

The simultaneous localization and recognition of subwavelength non-cooperative entities within complex multi-scattering environments using a simplified system continues to pose a s…

physics.optics2024

Time-varying k-domain modulation around a point sink in time reversal cavity

Xin Liu, Jin-Shan Cui, Ren Wang +2

This paper derives and investigates a time-varying k-domain modulation in vector form using a time-reversal (TR) field decomposition theory proposed for the first time. First, the…

physics.app-ph20241 cited

Inverse Design of Frequency Selective Surface Using Physics-Informed Neural Networks

Yu-Hang Liu, Bing-Zhong Wang, Ren Wang

This paper uses Physics-Informed Neural Network (PINN) to design Frequency Selective Surface (FSS). PINN integrates physical information into the loss function, so training PINN do…

physics.app-ph2023

Dynamic Modulation of Electromagnetically Induced Transparency Metamaterials through Mode Coupling and Stretchable Design

Sihong Chen, Taisong Pan, Zhengcheng Mou +2

The active control of electromagnetically induced transparency (EIT) metamaterials (MM) has the potential to revolutionize communication networks without relying on quantum technol…