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2026-07-29
A Data-Driven Framework for the Efficient Design of Dual-Notched UWB Antennas via Surrogate-Assisted Nutcracker Optimization
By
Progress In Electromagnetics Research C, Vol. 172, 46-57, 2026
Abstract
The design of ultra-wideband (UWB) band-notched antennas is highly sensitive to geometric dimensions. Consequently, traditional metaheuristic algorithms incur prohibitive computational costs from massive full-wave electromagnetic (EM) simulations. An efficient co-design framework, termed the Surrogate-Assisted Nutcracker Optimization Algorithm with Gaussian Process (SANOA-GP), is proposed. By leveraging a GP surrogate for epistemic uncertainty quantification with a lower confidence bound (LCB) prescreening strategy, SANOA-GP balances exploration and exploitation, overcoming high-dimensional multimodal traps. Moreover, intelligent early stopping is achieved through a performance-driven dual-termination criterion with a progressive reward mechanism. Sobol global sensitivity analysis is incorporated to quantitatively evaluate geometric influences, enhancing black-box interpretability and verifying the independent tunability of the dual notches. Measurement results confirm that the optimized antenna achieves precise and deep notches (S11 > -5 dB) at the 5G N79 and X-band frequencies. Remarkably, SANOA-GP converges with an average of only 69.3 full-wave EM simulations. Compared to surrogate-free algorithms, it reduces computational time by over 50%, while still ensuring high optimization accuracy and physical reliability. The proposed framework offers an efficient and reliable paradigm for the automated design of complex radio frequency (RF) and microwave components.
Citation
Huawei Zhuang, Zijian Zhang, Fei Wang, Haonan Tian, Xiaoyang Liu, and Fanmin Kong, "A Data-Driven Framework for the Efficient Design of Dual-Notched UWB Antennas via Surrogate-Assisted Nutcracker Optimization," Progress In Electromagnetics Research C, Vol. 172, 46-57, 2026.
doi:10.2528/PIERC26051303
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