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Main Authors: Sun, Kailai, Lan, Tianxiang, Kam, Say Hong, Goh, Yang Miang, Huang, Yueng-Hsiang
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2402.12417
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author Sun, Kailai
Lan, Tianxiang
Kam, Say Hong
Goh, Yang Miang
Huang, Yueng-Hsiang
author_facet Sun, Kailai
Lan, Tianxiang
Kam, Say Hong
Goh, Yang Miang
Huang, Yueng-Hsiang
contents There is a rising interest in using artificial intelligence (AI)-powered safety analytics to predict accidents in the trucking industry. Companies may face the practical challenge, however, of not having enough data to develop good safety analytics models. Although pretrained models may offer a solution for such companies, existing safety research using transfer learning has mostly focused on computer vision and natural language processing, rather than accident analytics. To fill the above gap, we propose a pretrain-then-fine-tune transfer learning approach to help any company leverage other companies' data to develop AI models for a more accurate prediction of accident risk. We also develop SafeNet, a deep neural network algorithm for classification tasks suitable for accident prediction. Using the safety climate survey data from seven trucking companies with different data sizes, we show that our proposed approach results in better model performance compared to training the model from scratch using only the target company's data. We also show that for the transfer learning model to be effective, the pretrained model should be developed with larger datasets from diverse sources. The trucking industry may, thus, consider pooling safety analytics data from a wide range of companies to develop pretrained models and share them within the industry for better knowledge and resource transfer. The above contributions point to the promise of advanced safety analytics to make the industry safer and more sustainable.
format Preprint
id arxiv_https___arxiv_org_abs_2402_12417
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Predicting trucking accidents with truck drivers 'safety climate perception across companies: A transfer learning approach
Sun, Kailai
Lan, Tianxiang
Kam, Say Hong
Goh, Yang Miang
Huang, Yueng-Hsiang
Machine Learning
Artificial Intelligence
There is a rising interest in using artificial intelligence (AI)-powered safety analytics to predict accidents in the trucking industry. Companies may face the practical challenge, however, of not having enough data to develop good safety analytics models. Although pretrained models may offer a solution for such companies, existing safety research using transfer learning has mostly focused on computer vision and natural language processing, rather than accident analytics. To fill the above gap, we propose a pretrain-then-fine-tune transfer learning approach to help any company leverage other companies' data to develop AI models for a more accurate prediction of accident risk. We also develop SafeNet, a deep neural network algorithm for classification tasks suitable for accident prediction. Using the safety climate survey data from seven trucking companies with different data sizes, we show that our proposed approach results in better model performance compared to training the model from scratch using only the target company's data. We also show that for the transfer learning model to be effective, the pretrained model should be developed with larger datasets from diverse sources. The trucking industry may, thus, consider pooling safety analytics data from a wide range of companies to develop pretrained models and share them within the industry for better knowledge and resource transfer. The above contributions point to the promise of advanced safety analytics to make the industry safer and more sustainable.
title Predicting trucking accidents with truck drivers 'safety climate perception across companies: A transfer learning approach
topic Machine Learning
Artificial Intelligence
url https://arxiv.org/abs/2402.12417