Key research themes
1. How can vibration signal processing methods improve fault diagnosis and condition monitoring in mechanical systems?
This research area investigates advanced signal processing techniques tailored to vibration signals for the detection, characterization, and diagnosis of faults in mechanical equipment. It focuses on methods that increase diagnostic accuracy under complex operating conditions, including noise interference, non-stationarity, and low-speed operation. These developments are crucial for predictive maintenance and reducing machinery downtime across diverse applications.
2. What are the advances and challenges in vibration signal acquisition and sensor technology for accurate mechanical and human vibration monitoring?
This theme addresses improvements in sensor design, measurement techniques, and device development for capturing vibration signals reliably across various applications. It prioritizes the creation of compact, low-cost, and accurate sensor systems adhering to international standards, including wearable devices for health monitoring and structural vibration assessment. The field aims to enhance data fidelity and usability in both industrial machinery fault detection and human exposure evaluation.
3. How can advanced signal separation and machine learning approaches enhance the isolation and classification of vibration sources in complex mechanical environments?
This research area explores blind source separation algorithms and classification methods to untangle overlapping vibration sources inherent in complex mechanical systems, such as internal combustion engines and rotating machinery. Integrating source separation with pattern recognition enables precise fault localization and the differentiation of signal components critical for condition monitoring, especially under conditions of non-stationarity and low-frequency operation.