Special Issues
Table of Content

Data–Physical Driven Methods for Health Monitoring, and Fault Diagnosis & Prognosis

Submission Deadline: 31 March 2027 View: 133 Submit to Special Issue

Guest Editor(s)

Prof. Dr. Hamid Reza Karimi

Email: hamidreza.karimi@polimi.it

Affiliation: Department of Mechanical Engineering, Politecnico di Milano, Milano, Italy

Homepage:

Research Interests: fault diagnosis, fault prognosis, machine learning, vibration control, condition monitoring

image2 (1).jpeg


Prof. Dr. Funa Zhou

Email: zhoufn@shmtu.edu.cn

Affiliation: School of Logistic Engineering, Shanghai Maritime University, Shanghai, China

Homepage:

Research Interests: fault diagnosis, fault prognosis, machine learning, vibration control, condition monitoring

image3 (5).jpeg


Summary

Modern control and monitoring systems rely heavily on modeling techniques to capture unknown system dynamics, making accurate modeling a cornerstone of control theory and engineering practice. Traditional approaches are generally classified as physics-driven or data-driven. Physics-driven methods offer interpretability and a foundation in system laws but often struggle with uncertainties and complex behaviors. Data-driven methods can adapt to complexity but are limited by data quality, quantity, and variability, reducing robustness and generalization.


Data–physical driven methods have emerged as a promising approach by integrating physical knowledge with data-driven learning. This synergy enhances interpretability, robustness, and adaptability, addressing the limitations of purely physics- or data-driven models. Such methods are particularly valuable for health monitoring, fault diagnosis, and fault prognosis, where accurate modeling, uncertainty handling, and limited fault data present critical challenges.
Despite advances, key issues remain, including adherence to physical constraints, accurate sensing and signal fusion, and the need for interdisciplinary expertise. This Special Issue provides a platform for researchers to share cutting-edge developments in data–physical driven modeling, control, and health monitoring. Topics include, but not limited to, digital twin-based modeling, filtering, deep learning, reinforcement learning, fault detection and prognosis, and industrial applications, aiming to advance both theoretical foundations and practical implementations.


Keywords

fault diagnosis and detection, fault prognosis and remaining useful life (RUL) prediction, digital twin–driven modeling and monitoring, data–physical driven machine learning and deep learning methods, health monitoring and anomaly detection using data–physical driven approaches, industrial applications and case studies

Share Link