Safety Predictive Model with Machine Learning and Its Application in DART Analysis in Utility
Abstract
Workplace safety is critical for utilities and field operations, where complex work orders pose significant risks to employees and operations. Safety Predictive Model (SPM) is a data-driven solution that proactively identifies high-risk work orders and supports mitigation strategies. SPM uses enterprise data such as material group codes, work order types, location attributes, seasonal factors, and circuit details. Injury and Serious Injury/Fatality (SIF) records are linked to work orders to strengthen model accuracy. Historical data informs modelling, while new data validates performance. Over 90 variables are engineered for machine learning, with predictive strength assessed via Information Value. Algorithms tested include logistic regression, decision trees, SVM, and gradient boosting, with ensemble methods selected using ROC AUC and KS statistics. A composite risk score flags top deciles as high risk, applying district-specific thresholds. Beyond assessing upcoming work orders, SPM reveals key risk drivers, enabling utilities to anticipate and mitigate safety challenges effectively.
Keywords: Workplace Safety, Machine Learning, Artificial Intelligence, DART, Injury And Serious Injury/fatality (SIF), OSHA
DOI: 10.54941/ahfe1007695
Cite this paper
More from this volume
- Designing a Generative AI–Supported Modular Quotation Process for SMEs: A Design Science Research Approach
- Supporting Inspection of Structured Qualitative Team Task Analytic Data
- Integration of MBSE Elements and Automation with System Development Processes for Advanced Performance & Efficiency
- Analysis for an End-to-End MBSE Operational Architecture
- A method of increasing the electromagnetic immunity of the Spectrum Monitoring Sensor to UAV’s by using a shielded casing
- Annoyance Modeling in Cooperative Personnel Scheduling
- From Manual Patrols to Automated Detection: Leveraging Aerial Imagery, Computer Vision and Large Language Models for Wildfire Risk Mitigation
- Scalable Threat Detection in Customer Interactions Using LLMs and LLM-as-Judge Framework
- Human Performance Modeling in Virtual Factories: A Simulation-Driven Ergonomics Approach
- Optimization of Motion Capture Technology for a Human Digital Twin with Reduced Sensor Setups
- Application of 3D Neck Modeling in Ergonomic Product Design
- Simulating Force-Posture Co-evolution in Horizontal Pushing Task using a Digital Human Model


AHFE Open Access