Abstract
Retrieving the similar solutions from the historical case base for new design requirements is the first step in mechanical part redesign under the context of case-based reasoning. However, the manual retrieving method has the problem of low efficiency when the case base is large. Additionally, it is difficult for simple reasoning algorithms (e.g., rule-based reasoning, decision tree) to cover all the features in complicated design solutions. In this regard, a text2shape deep retrieval model is established in order to support text description-based mechanical part shapes retrieval, where the texts are for describing the structural features of the target mechanical parts. More specifically, feature engineering is applied to identify the key structural features of the target mechanical parts. Based on the identified key structural features, a training set of 1000 samples was constructed, where each sample consisted of a paragraph of text description of a group of structural features and the corresponding 3D shape of the structural features. RNN and 3D CNN algorithms were customized to build the text2shape deep retrieval model. Orthogonal experiments were used for modeling turning. Eventually, the highest accuracy of the model was 0.98; therefore, the model can be effective for retrieving initial cases for mechanical part redesign.
Funder
National Natural Science Foundation of China
Subject
Electrical and Electronic Engineering,Industrial and Manufacturing Engineering,Control and Optimization,Mechanical Engineering,Computer Science (miscellaneous),Control and Systems Engineering
Reference53 articles.
1. Knowledge base question answering by case-based reasoning over subgraphs;Das;arXiv,2022
2. Pattern-based reasoning for rapid redesign: a proactive approach
3. The pulley model: A descriptive model of risky decision-making;Brooks;Saf. Sci. Monit.,2007
4. Effective and efficient sports play retrieval with deep representation learning;Wang;Proceedings of the KDD ‘19: Proceedings of the 25th ACM SIGKDD International Conference on Knowledge Discovery and Data Mining,2019
5. Deep learning for design and retrieval of nano-photonic structures;Malkiel;arXiv,2017
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