K-TRAIL:模拟器引导的电磁/射频电路生成式设计
K-TRAIL: Simulator-Guided Generative Design of EM/RF Circuits
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中文总结 AI 辅助
针对射频/电磁电路逆向设计难、仿真昂贵的问题,提出K-TRAIL模拟器引导生成框架,结合扩散模型与集成卡尔曼引导,无需梯度即可优化布局,实验证明能改善目标响应一致性并发现多样可行设计。
中文摘要 AI 辅助
射频和电磁(EM)电路的逆向设计具有挑战性,因为电路布局与电响应之间的关系并非唯一,且全波仿真计算成本高昂。本文提出K-TRAIL,一种用于自动化EM/RF电路综合的模拟器引导生成框架。K-TRAIL将基于扩散的布局生成与无导数集成卡尔曼引导相结合,允许在生成过程中利用黑盒EM模拟器的反馈来优化候选布局,而无需伴随灵敏度或可微分求解器模型。该框架支持从指定的S参数响应进行综合,也支持直接从射频性能约束进行综合。在多层层射频集成电路(RFIC)结构上的实验表明,模拟器引导的生成能改善与目标响应的一致性,并能识别出满足电路级设计要求的结构上不同的布局。所提出的方法为生成式、验证感知的射频电路设计提供了一条实用路径,同时保留了探索多样化布局拓扑的灵活性。
英文摘要
Inverse design of RF and electromagnetic (EM) circuits is challenging because the relationship between circuit layout and electrical response is non-unique, and full-wave simulation is computationally expensive. This paper presents K-TRAIL, a simulator-guided generative framework for automated EM/RF circuit synthesis. K-TRAIL combines diffusion-based layout generation with derivative-free ensemble Kalman guidance, allowing feedback from a black-box EM simulator to refine candidate layouts during generation without requiring adjoint sensitivities or differentiable solver models. The framework supports both synthesis from prescribed S-parameter responses and synthesis directly from RF performance constraints. Experiments on multi-layer RFIC structures show that simulator-guided generation improves agreement with target responses and can identify structurally distinct layouts that satisfy circuit-level design requirements. The proposed approach provides a practical path toward generative, verification-aware RF circuit design while retaining the flexibility to explore diverse layout topologies.
发表机构
- Oregon State University(俄勒冈州立大学)
- Yale University(耶鲁大学)
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