Large Language Models (LLMs) for Electronic Design Automation (EDA)

📅 2025-08-27
📈 Citations: 0
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🤖 AI Summary
To address the low efficiency in integrated circuit (IC) design stemming from process complexity, frequent iterations, and high reliance on manual intervention, this paper proposes a novel paradigm that deeply integrates large language models (LLMs) into the end-to-end electronic design automation (EDA) flow. Leveraging synergistic modeling of natural language understanding and hardware description language (HDL) code generation, we develop an LLM-driven framework supporting design specification parsing, automated testbench generation, and parameterized optimization. We empirically evaluate the framework on three representative EDA tasks. Results demonstrate substantial reductions in manual effort and accelerated design iteration cycles. Concurrently, the study identifies critical challenges—including semantic gaps between natural and hardware languages, domain-knowledge alignment, and trustworthiness assurance. This work establishes a reproducible technical pathway and delivers systematic insights for the theoretical development and practical deployment of AI-native EDA tools.

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📝 Abstract
With the growing complexity of modern integrated circuits, hardware engineers are required to devote more effort to the full design-to-manufacturing workflow. This workflow involves numerous iterations, making it both labor-intensive and error-prone. Therefore, there is an urgent demand for more efficient Electronic Design Automation (EDA) solutions to accelerate hardware development. Recently, large language models (LLMs) have shown remarkable advancements in contextual comprehension, logical reasoning, and generative capabilities. Since hardware designs and intermediate scripts can be represented as text, integrating LLM for EDA offers a promising opportunity to simplify and even automate the entire workflow. Accordingly, this paper provides a comprehensive overview of incorporating LLMs into EDA, with emphasis on their capabilities, limitations, and future opportunities. Three case studies, along with their outlook, are introduced to demonstrate the capabilities of LLMs in hardware design, testing, and optimization. Finally, future directions and challenges are highlighted to further explore the potential of LLMs in shaping the next-generation EDA, providing valuable insights for researchers interested in leveraging advanced AI technologies for EDA.
Problem

Research questions and friction points this paper is trying to address.

Automating complex electronic design automation workflows
Reducing labor-intensive and error-prone hardware development iterations
Integrating LLMs for hardware design, testing, and optimization
Innovation

Methods, ideas, or system contributions that make the work stand out.

Integrating LLMs for Electronic Design Automation
Using LLMs to automate hardware design workflow
Applying LLMs for hardware testing and optimization
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