A Diffusion Model Based Iterative Convolution Thresholding Method for Structural Topological Optimization

In this study, we introduce the Diffusion Model with Iterative Convolution Thresholding Method (DICTM), a novel hybrid approach designed to address the minimum compliance problem in topology optimization. DICTM synergistically combines the robustness of diffusion models with the precision of threshold dynamics to tackle the complexities inherent in linear elasticity problems, while substantially enhancing computational efficiency. Our approach facilitates the generation of initial configurations via the diffusion model, which dramatically improves the efficiency of the subsequent threshold dynamics process, reducing the iteration count to about one-tenth of that required by traditional methods. This significant reduction in computational effort also enables more effective hyperparameter tuning without added cost. The integration of deep-generative models with a rigorous threshold dynamics framework positions DICTM as a powerful tool in topology optimization, producing designs not only with low compliance, but also in a computationally efficient way

Authors

Publication Details

Journal
Communications in Computational Physics
Published
2026-04-10
DOI
https://doi.org/10.4208/cicp.oa-2024-0308
Primary Topic
Topology Optimization in Engineering
Type
article
Field-Weighted Citation Impact
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article

A Diffusion Model Based Iterative Convolution Thresholding Method for Structural Topological Optimization

Luyu Cen Luyu Cen, Xiaonan Peng, Xianfeng Wang
Communications in Computational Physics
Topology Optimization in Engineering
article

A Diffusion Model Based Iterative Convolution Thresholding Method for Structural Topological Optimization

Luyu Cen Luyu Cen, Xiaonan Peng, Xianfeng Wang
article en

Abstract

In this study, we introduce the Diffusion Model with Iterative Convolution Thresholding Method (DICTM), a novel hybrid approach designed to address the minimum compliance problem in topology optimization. DICTM synergistically combines the robustness of diffusion models with the precision of threshold dynamics to tackle the complexities inherent in linear elasticity problems, while substantially enhancing computational efficiency. Our approach facilitates the generation of initial configurations via the diffusion model, which dramatically improves the efficiency of the subsequent threshold dynamics process, reducing the iteration count to about one-tenth of that required by traditional methods. This significant reduction in computational effort also enables more effective hyperparameter tuning without added cost. The integration of deep-generative models with a rigorous threshold dynamics framework positions DICTM as a powerful tool in topology optimization, producing designs not only with low compliance, but also in a computationally efficient way

Communications in Computational PhysicsVol. 40(1)
Openalex Percentile: Top 22%
Topology Optimization in Engineering
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