E-jet printed sensors and deep learning for advanced EMS cart condition monitoring

This study presents an intelligent condition monitoring framework for electric monorail system cart systems, integrating conformal printed sensing, machine vision, and deep learning. Overcoming sensor integration challenges, thermal-field assisted electrohydrodynamic jet printing is employed to fabricate high-resolution zinc oxide sensors on complex surfaces, guided by a multiphysics model elucidating laser–jet interactions. Key process parameters (Zn2+ concentration, temperature, and voltage) are optimized for jet stability and microstructure. For operational diagnostics, a hyperparameter-optimized neural network is developed for track strain signal analysis, and a transfer learning-enhanced convolutional neural network is implemented for visual detection of track cable cracks. Experimental validation confirms the framework’s efficacy in achieving precise state identification, significantly boosting fault detection accuracy, reducing labor costs, and enabling intelligent operation and maintenance.

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Publication Details

Journal
Nanotechnology and Precision Engineering
Published
2026-02-25
DOI
https://doi.org/10.1063/5.0291179
Primary Topic
High voltage insulation and dielectric phenomena
Type
article
Field-Weighted Citation Impact
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article

E-jet printed sensors and deep learning for advanced EMS cart condition monitoring

Yexin Wang, Kai Li, Xiaolong Wu, Jieqi Zhao et al.
Nanotechnology and Precision Engineering
High voltage insulation and dielectric phenomena
article

E-jet printed sensors and deep learning for advanced EMS cart condition monitoring

Yexin Wang, Kai Li, Xiaolong Wu, Jieqi Zhao, Pengfei Li, Leilei Zhu, Bin Lin, Anjie Zheng, Hao Fu
article en

Abstract

This study presents an intelligent condition monitoring framework for electric monorail system cart systems, integrating conformal printed sensing, machine vision, and deep learning. Overcoming sensor integration challenges, thermal-field assisted electrohydrodynamic jet printing is employed to fabricate high-resolution zinc oxide sensors on complex surfaces, guided by a multiphysics model elucidating laser–jet interactions. Key process parameters (Zn2+ concentration, temperature, and voltage) are optimized for jet stability and microstructure. For operational diagnostics, a hyperparameter-optimized neural network is developed for track strain signal analysis, and a transfer learning-enhanced convolutional neural network is implemented for visual detection of track cable cracks. Experimental validation confirms the framework’s efficacy in achieving precise state identification, significantly boosting fault detection accuracy, reducing labor costs, and enabling intelligent operation and maintenance.

Nanotechnology and Precision EngineeringVol. 9(2)
Ningbo University (CN), University of Nottingham Ningbo China (CN), Ningbo University of Technology (CN), China Tobacco (CN)
Decent work and economic growth
Openalex Percentile: Top 45%
High voltage insulation and dielectric phenomena
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