A Method for Synthesizing Ontology-Based Textual Design Datasets: Evaluating the Potential of Large Language Model in Domain-Specific Dataset Generation

Abstract In engineering disciplines, leveraging generative language models requires using specialized datasets for training or fine-tuning the preexisting models. Compiling these domain-specific datasets is a complex endeavor, demanding significant human effort and resources. To address the problem of domain-specific dataset scarcity, this study investigates the potential of generative large language models (LLMs) in creating synthetic domain-specific textual datasets for engineering design domains. By harnessing the advanced capabilities of LLMs, such as GPT-4, a systematic methodology was developed to create high-fidelity datasets using designed prompts, evaluated against a manually labeled benchmark dataset through various computational measurements without human intervention. Findings suggest that well-designed prompts can significantly enhance the quality of domain-specific synthetic datasets with reduced manual effort. The research highlights the importance of prompt design in eliciting precise, domain-relevant information and discusses the balance between dataset robustness and richness. It is demonstrated that a language model trained on synthetic datasets can achieve a level of performance comparable to that of human-labeled, domain-specific datasets in terms of quality, offering a strategic solution to the limitations imposed by dataset shortages in engineering domains. The implications for design thinking processes are particularly noteworthy, with the potential to assist designers through GPT-4's structured reasoning capabilities. This work presents a complete guide for domain-specific dataset generation, automated evaluation metrics, and insights into the interplay between data robustness and comprehensiveness.

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Publication Details

Journal
Journal of Mechanical Design
Published
2024-12-19
DOI
https://doi.org/10.1115/1.4067478
Citations
7
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.82
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article

A Method for Synthesizing Ontology-Based Textual Design Datasets: Evaluating the Potential of Large Language Model in Domain-Specific Dataset Generation

Yunjian Qiu, Yan Jin
7 citations
Journal of Mechanical Design
Machine Learning in Materials Science
0.82
article

A Method for Synthesizing Ontology-Based Textual Design Datasets: Evaluating the Potential of Large Language Model in Domain-Specific Dataset Generation

Yunjian Qiu, Yan Jin
article en
7 citations

Abstract

Abstract In engineering disciplines, leveraging generative language models requires using specialized datasets for training or fine-tuning the preexisting models. Compiling these domain-specific datasets is a complex endeavor, demanding significant human effort and resources. To address the problem of domain-specific dataset scarcity, this study investigates the potential of generative large language models (LLMs) in creating synthetic domain-specific textual datasets for engineering design domains. By harnessing the advanced capabilities of LLMs, such as GPT-4, a systematic methodology was developed to create high-fidelity datasets using designed prompts, evaluated against a manually labeled benchmark dataset through various computational measurements without human intervention. Findings suggest that well-designed prompts can significantly enhance the quality of domain-specific synthetic datasets with reduced manual effort. The research highlights the importance of prompt design in eliciting precise, domain-relevant information and discusses the balance between dataset robustness and richness. It is demonstrated that a language model trained on synthetic datasets can achieve a level of performance comparable to that of human-labeled, domain-specific datasets in terms of quality, offering a strategic solution to the limitations imposed by dataset shortages in engineering domains. The implications for design thinking processes are particularly noteworthy, with the potential to assist designers through GPT-4's structured reasoning capabilities. This work presents a complete guide for domain-specific dataset generation, automated evaluation metrics, and insights into the interplay between data robustness and comprehensiveness.

Journal of Mechanical DesignVol. 147(4)
University of Southern California (US), California Southern University (US), San Jose State University (US), Southern States University (US)
Quality Education
Openalex Percentile: Top 25%
Machine Learning in Materials Science
0.82
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