DeepSeq3: Hierarchical Graph Learning for Scalable Circuit Analysis

Jingyi Zhou, Zhengyuan Shi, Jiaying Zhu, Ziyang Zheng, Qiang Xu· August 31, 2026 View original

Key takeaways

  • DeepSeq3 uses hierarchical graph learning for scalable circuit analysis.
  • It models circuits at both fine-grained and high-level representations.
  • A state-centric pre-training scheme captures temporal circuit behavior.
  • The framework reduces verification time by 18% on large benchmarks.

Who benefits

SemiconductorElectronics ManufacturingAI/ML HardwareEDA Software

Summary

DeepSeq3 is a novel hierarchical framework that uses dual Graph Neural Networks to learn representations of sequential circuits, abstracting them into combinational subgraphs and a Super-Node Graph. This approach significantly improves scalability and temporal understanding for Electronic Design Automation tasks.

Circuit Representation Learning (CRL) holds great promise for optimizing Electronic Design Automation (EDA) tasks, but its adoption is hampered by the massive scale of industrial netlists and the difficulty in modeling temporal dynamics at the register level. A new framework, DeepSeq3, aims to overcome these limitations by introducing a hierarchical approach. DeepSeq3 abstracts circuits into a two-level representation. At the fine-grained level, it partitions combinational subgraphs using flip-flops (FFs). At a higher level, it creates a Super-Node Graph (SNG) to model the register-transfer structure. A dual Graph Neural Network (GNN) architecture then learns representations for both levels, capturing both local Boolean logic and global state transitions. A crucial innovation is a state-centric pre-training scheme that predicts reachability between FF states, giving the model a deep understanding of temporal behavior. Demonstrated on large-scale benchmarks, DeepSeq3 shows superior scalability and richer representations, leading to an 18% reduction in bounded model checking (BMC) solving time while maintaining correctness.

Why it matters

For professionals in semiconductor design and EDA, DeepSeq3 offers a significant leap in scalability and efficiency for analyzing complex sequential circuits, potentially accelerating design cycles and improving verification processes.

How to implement this in your domain

  1. 1Evaluate DeepSeq3's hierarchical graph learning approach for circuit verification and optimization tasks.
  2. 2Integrate the framework into existing EDA toolchains to enhance circuit analysis capabilities.
  3. 3Develop custom GNN models based on DeepSeq3's principles for specific circuit design challenges.
  4. 4Collaborate with research teams to adapt and extend DeepSeq3 for emerging circuit architectures.

Original post by Jingyi Zhou, Zhengyuan Shi, Jiaying Zhu, Ziyang Zheng, Qiang Xu

"arXiv:2608.28188v1 Announce Type: new Abstract: Circuit Representation Learning (CRL) offers a powerful paradigm to guide and optimize core Electronic Design Automation (EDA) tasks, but its practical adoption is hindered by the immense scale of industrial netlists and a failure t…"

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Originally posted by Jingyi Zhou, Zhengyuan Shi, Jiaying Zhu, Ziyang Zheng, Qiang Xu on X · view source

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