MQENet: a mesh quality evaluation neural network based on dynamic graph attention

Purpose The goal of this paper is to solve the shortcomings of subjectivity and singleness of traditional mesh quality metrics. By combining graph learning technology, an intelligent mesh quality evaluation model based on graph dynamic attention is proposed to achieve a more comprehensive and objective evaluation process. Design/methodology/approach The authors propose MQENet, a structured mesh quality evaluation neural network based on dynamic graph attention. MQENet treats the mesh evaluation task as a graph classification task for classifying the quality of the input structured mesh. To make graphs generated from structured meshes more informative, the authors also introduce two novel structured mesh preprocessing algorithms. Findings We successfully applied graph neural networks to the task of mesh quality evaluation. At the same time, our proposed graph neural network overcomes the shortcomings of traditional mesh quality evaluation metrics. Originality/value Two novel structured mesh preprocessing algorithms can improve the conversion efficiency of structured mesh data. Experimental results on the benchmark structured mesh dataset NACA-Market show the effectiveness of MQENet in the mesh quality evaluation task.

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Publication Details

Journal
Engineering Computations
Published
2026-01-22
DOI
https://doi.org/10.1108/ec-10-2023-0663
Primary Topic
Advanced Graph Neural Networks
Type
article
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article

MQENet: a mesh quality evaluation neural network based on dynamic graph attention

Haoxuan Zhang, Haisheng Li, Xiaochuan Wang, Nan Li
Engineering Computations
Advanced Graph Neural Networks
article

MQENet: a mesh quality evaluation neural network based on dynamic graph attention

Haoxuan Zhang, Haisheng Li, Xiaochuan Wang, Nan Li
article en

Abstract

Purpose The goal of this paper is to solve the shortcomings of subjectivity and singleness of traditional mesh quality metrics. By combining graph learning technology, an intelligent mesh quality evaluation model based on graph dynamic attention is proposed to achieve a more comprehensive and objective evaluation process. Design/methodology/approach The authors propose MQENet, a structured mesh quality evaluation neural network based on dynamic graph attention. MQENet treats the mesh evaluation task as a graph classification task for classifying the quality of the input structured mesh. To make graphs generated from structured meshes more informative, the authors also introduce two novel structured mesh preprocessing algorithms. Findings We successfully applied graph neural networks to the task of mesh quality evaluation. At the same time, our proposed graph neural network overcomes the shortcomings of traditional mesh quality evaluation metrics. Originality/value Two novel structured mesh preprocessing algorithms can improve the conversion efficiency of structured mesh data. Experimental results on the benchmark structured mesh dataset NACA-Market show the effectiveness of MQENet in the mesh quality evaluation task.

Engineering Computations
Beijing Technology and Business University (CN), Beijing Academy of Artificial Intelligence (CN), Data Assurance and Communication Security (CN)
Openalex Percentile: Top 82%
Advanced Graph Neural Networks
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MQENet: a mesh quality evaluation neural network based on dynamic graph attention — Haoxuan Zhang, Haisheng Li, et al. · Engineering Computations (2026) | TGRS Research Map | TGRS