Research demonstrates a GCN model classifying part structures in flexible production tasks, highlighting automation potential.
The aim of the study is to develop an intelligent system for automating the selection of technological routes based on a graph neural network and an interface for encoding part features. The objective of the article is to present a method for formalizing the product structure in a machine-readable format and to develop a GCN model capable of classifying parts by structure and selecting a technological template. The research methods include manual input of features through an interface, constructing a directed graph, encoding parameters in one-hot format, training the neural net-work on a labelled dataset, and implementing a self-learning mode. The novelty lies in combining an interface for forming the part structure without using 3D models; a graph model with intersection nodes as separate entities; a GCN model for selecting routes; and a mechanism for incorporating user decisions into the learning process. The results show that the model is trained on 100 graphs and achieves an accuracy of 78.6%. The dynamics of loss and accuracy demonstrates stable convergence. Findings state that the system allows representing parts as a graph, auto-matically selecting processing templates, and accumulating technologist experience. The solution is oriented towards flexible production tasks and can be used as part of digital CAPP platforms.
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Феофанов et al. (2025) studied this question.
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