An inductive resonance circuit replaces mechanical contacts to avoid wear while enabling adjustable switching points and variable key signals.
An independent diagnostic controller uses input state and motor torque to detect faults and override commands that could cause unintended acceleration.
Machine learning combines sensor, inspection, and simulation data to predict undercarriage wear and support timely maintenance.
Multiple internal crankshaft sensors compare vibration, temperature, and rotation signals to improve speed reducer fault prediction.
A friction-coupled wheel and cap module adds tire-like elasticity to drivetrain test stands, improving bench-to-vehicle behavior accuracy.
Fused non-stationary sensor signals and wavelet-based features improve machine health assessment accuracy during changing operating conditions.
Averaging vibration data across two periods filters plant noise, improving ball screw pre-load and wear determination accuracy.
An unsupervised neural network isolates impulsive fault signals from noisy machine vibration data, enabling clearer envelope spectrum diagnosis.
Uses pinion gear inspection, imaging, and machine learning under full load to predict girth gear wear and plan maintenance.
Rolling test results set component-specific gear measurement scope, cutting tactile inspection time while preserving noise control and quality assurance.
Real-time vibration analysis and virtual bearing models estimate defect impact force and remaining life to cut downtime and safety risk.
Distinguishing device-specific normal distributions improves anomaly scoring accuracy when normal data is limited and similar devices behave differently.
Measurement and analysis intervals are set from processing time so condition monitoring stays real time and avoids data backlog.
Vibration signal analysis distinguishes imbalance, bearing, gearbox, and collision faults in coating equipment for earlier maintenance.
Dynamic gain control and heterodyning let ultrasonic sensors detect initial lubricant contact and track bearing lubrication without manual tuning.
Phase-current frequency analysis uses motor and mechanical natural frequencies to detect control rod drive abnormalities even without strong resonance.
Neural estimation of RUL distribution parameters improves worn-part life prediction by learning from condition monitoring data and censored records.