arXiv:2510.15872cs.ARcs.AI2025-10被引 1

用多模态大模型帮芯片设计工程师找出布线拥堵原因并给出可操作建议。

Multimodal Chip Physical Design Engineer Assistant

  • 通过多模态提示生成与偏好学习,融合视觉、表格和文本信息
  • 在CircuitNet上预测准确率和可解释性均优于现有方法
  • 输出设计优化建议卡,贴近真实工程实践,适合芯片设计师使用

现代芯片物理设计高度依赖电子设计自动化(EDA)工具,但这些工具常无法提供可解释的反馈或可操作的改进建议。本文提出多模态大语言模型助手(MLLMA),不仅预测布线拥堵,还生成人类可理解的设计建议。方法结合了由MLLM引导的遗传提示自动生成特征,以及一个可解释的偏好学习框架,用于建模视觉、表格和文本输入中的拥堵相关权衡。我们将这些洞察整合为“设计建议卡”,突出最具影响力的版图特征并提出针对性优化方案。在CircuitNet基准上的实验表明,该方法在准确性和可解释性上均优于现有模型。此外,设计建议指导案例和定性分析证实,所学偏好符合实际设计原则,且对工程师具有可操作性。本工作展示了多模态大模型作为可解释、上下文感知的物理设计优化交互助手的潜力。

原文摘要 · Abstract (English)

Modern chip physical design relies heavily on Electronic Design Automation (EDA) tools, which often struggle to provide interpretable feedback or actionable guidance for improving routing congestion. In this work, we introduce a Multimodal Large Language Model Assistant (MLLMA) that bridges this gap by not only predicting congestion but also delivering human-interpretable design suggestions. Our method combines automated feature generation through MLLM-guided genetic prompting with an interpretable preference learning framework that models congestion-relevant tradeoffs across visual, tabular, and textual inputs. We compile these insights into a "Design Suggestion Deck" that surfaces the most influential layout features and proposes targeted optimizations. Experiments on the CircuitNet benchmark demonstrate that our approach outperforms existing models on both accuracy and explainability. Additionally, our design suggestion guidance case study and qualitative analyses confirm that the learned preferences align with real-world design principles and are actionable for engineers. This work highlights the potential of MLLMs as interactive assistants for interpretable and context-aware physical design optimization.

芯片设计多模态大模型可解释性

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