Work

Incremental modeling and its application for driver fatigue estimation

Year: 2025

Type: article

Abstract: This article focuses on an Incremental Learning (IL)-based approach for examining a driver fatigue dataset and compares its performance with classical Machine Learning (ML) and deep learning techniques with respect to generalization capability. Driver fatigue is of significant concern in traditional driving conditions, contributing to many serious and fatal accidents worldwide. While self-driving cars may eventually alleviate this issue, until they are fully developed, “self-driving carsickness” introduces new problems. Various classification methods have been proposed in recent years to distinguish between drowsy and alert states, including both binary and multi-class classifications. However, the generalization capabilities of these methods are underexplored. IL, often seen as a data-hungry approach, optimizes both model parameters and structure. The primary goal is early recognition of fatigue, enabling timely intervention, and ensuring explainability for safety-critical systems. To address these issues, we propose a novel regression approach. We propose a deterministic regression model, guided by binary labels and using an Incremental Modeling (IM) framework, to address the challenges in fatigue recognition. Our model demonstrates superior performance on a challenging dataset, with improvements in accuracy ( + 2 … + 7 % ), parameter count ( − 99 … − 100 % ), speed ( + 0 . 5 … − 0 . 1 s), and latency ( − 70 μ s ). It also offers flexibility with optional personalization, illustrating the strength and adaptability of IM for fatigue detection in various conditions. • Novel deterministic regression model guided by binary labels to detect fatigue. • Incremental Modeling, which outperforms traditional Machine Learning techniques. • Performance improvements in accuracy, speed, parameter reduction, and latency. • Flexibility and adaptability with optional personalization in fatigue recognition. • Early fatigue recognition, with a focus on generalization capabilities.

Source: Biomedical Signal Processing and Control

DOI: 10.1016/j.bspc.2025.108046

Authors: Szilárd Kovács, János Botzheim

Institution: Eötvös Loránd University

Language: English

Topic: Sleep and Work-Related Fatigue

Subfield: Experimental and Cognitive Psychology

Field: Psychology

Domain: Social Sciences

SDGs: Good health and well-being, Industry, innovation and infrastructure

Open Access status: hybrid

Estimated APC paid: $2,590