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Applications and Material Design of Machine Learning-Enabled Metal Oxide Semiconductor Gas Sensors.

Created on 13 Jul 2026

Authors

Zhi-Lei Li, Xiao-Hong Zheng, Su-Yue Ren, Zi-Qi Gu, Liang-Bo Bo, Jing-Wen Pan, Yu-Feng Liu

Published in

Langmuir : the ACS journal of surfaces and colloids. Jul 12, 2026. Epub Jul 12, 2026.

Abstract

Because of their facile fabrication and ease of integration, MOS gas sensors have been widely used in environmental monitoring, industrial safety, and health diagnostics. However, under complex application scenarios, MOS sensors still face challenges such as cross-sensitivity, environmental interference, device drift, and strongly nonlinear response signals, which limit their detection accuracy and long-term stability. Machine learning offers significant advantages in high-dimensional data processing, nonlinear mapping, and pattern recognition, thereby providing new avenues for improving the performance of MOS gas sensors. Centered on the sensing mechanisms and data characteristics of MOS gas sensors, this review systematically summarizes recent progress in the application of machine learning to quantitative gas concentration analysis, gas species identification, drift compensation, and stability enhancement, as well as the machine-learning-assisted design of gas-sensing materials, while comparing the roles and applicability of different models in feature extraction, signal interpretation, and performance optimization. In addition, this review summarizes the challenges facing the field, including limited sample sizes, model generalization, interpretability, and edge deployment, and further outlines future research directions. This review may serve as a useful reference for the deeper integration of machine learning with MOS gas sensors and for the development of intelligent gas-sensing systems.

PMID:
42437528
Bibliographic data and abstract were imported from PubMed on 13 Jul 2026.

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