Artificial Immune Algorithm and Neural Network for Bearing Pattern Recognition and Fault Diagnosis
Implementation of Artificial Immune Algorithm and Neural Network for Bearing Pattern Recognition and MATLAB-based Fault Diagnosis with Code Examples
Explore MATLAB source code curated for "故障诊断" with clean implementations, documentation, and examples.
Implementation of Artificial Immune Algorithm and Neural Network for Bearing Pattern Recognition and MATLAB-based Fault Diagnosis with Code Examples
MATLAB-based artificial immune algorithm implementation with applications in fault diagnosis systems, featuring immune-inspired optimization mechanisms and pattern recognition capabilities.
A wavelet neural network program derived from analog circuit fault diagnosis applications, provided for learning and reference purposes with detailed code implementation insights
Implementation of Support Vector Data Description for fault diagnosis, featuring extensive code annotations, detailed algorithm explanations, and comprehensive reference documentation
Backpropagation network training source code suitable for parameter identification and pattern classification applications including damage detection and fault diagnosis
BP Neural Network implementation for fault diagnosis, featuring data normalization processing and network parameter optimization strategies
MATLAB implementation of an enhanced backpropagation algorithm for diesel engine fault detection and diagnosis, featuring optimized neural network training with gradient descent adjustments and activation function improvements for engineering students and researchers.
MATLAB simulation program implementing Principal Component Analysis (PCA) for fault detection and diagnosis systems, featuring algorithm demonstration and performance optimization
The clonal selection algorithm within immune algorithm frameworks demonstrates excellent performance in fault diagnosis applications after implementation, leveraging pattern recognition and adaptive learning capabilities.
The Online Sequential Extreme Learning Machine (OS-ELM) operates through two key phases: Initialization Phase - trains on limited fault data using ELM methodology, discards training data after learning, and stores parameters H (hidden layer output matrix) and β (output weight matrix) in the network; Online Learning Phase - dynamically updates parameters H and β using streaming fault data, continuously enhancing classification performance and generalization capability for improved fault diagnosis accuracy. The trained OS-ELM parameters stored in network nodes enable cross-platform deployment - the weight parameter β can be loaded onto new PCs, DSPs, ARM-based embedded systems, etc. For new fault test data, only the corresponding hidden layer output matrix H needs regeneration.