Neural Networks for Applied Sciences and Engineering
, by Sandhya Samarasinghe- ISBN: 9781420013061 | 1420013068
- Cover: Nonspecific Binding
- Copyright: 4/19/2016
From Data to Models: Complexity and Challenges in Understanding Biological, Ecological, and Natural Systems | |
Introduction | |
Layout of the Book | |
Fundamentals of Neural Networks and Models for Linear Data Analysis | |
Introduction and Overview | |
Neural Networks and Their Capabilities | |
Inspirations from Biology | |
Modeling Information Processing in Neurons | |
Neuron Models and Learning Strategies | |
Models for Prediction and Classification | |
Practical Examples of Linear Neuron Models on Real Data | |
Comparison with Linear Statistical Methods | |
Summary | |
Problems | |
Neural Networks for Nonlinear Pattern Recognition | |
Overview and Introduction | |
Nonlinear Neurons | |
Practical Example of Modeling with Nonlinear Neurons | |
Comparison with Nonlinear Regression | |
One-Input Multilayer Nonlinear Networks | |
Two-Input Multilayer Perceptron Network | |
Case Studies on Nonlinear Classification and Prediction with Nonlinear Networks | |
Multidimensional Data Modeling with Nonlinear Multilayer Perceptron Networks | |
Summary | |
Problems | |
Learning of Nonlinear Patterns by Neural Networks | |
Introduction and Overview | |
Supervised Training of Networks for Nonlinear Pattern Recognition | |
Gradient Descent and Error Minimization | |
Backpropagation Learning and Illustration with an Example and Case Study | |
Delta-Bar-Delta Learning and Illustration with an Example and Case Study | |
Steepest Descent Method Presented with an Example | |
Comparison of First Order Learning Methods | |
Second-Order Methods of Error Minimization and Weight Optimization | |
Comparison of First Order and Second Order Learning Methods Illustrated through an Example | |
Summary | |
Problems | |
Implementation of Neural Network Models for Extracting Reliable Patterns From Data | |
Introduction and Overview | |
Bias-Variance Tradeoff | |
Illustration of Early Stopping and Regularization | |
Improving Generalization of Neural Networks | |
Network structure Optimization and Illustration with Examples | |
Reducing Structural Complexity of Networks by Pruning | |
Demonstration of Pruning with Examples | |
Robustness of a Network to Perturbation of Weights Illustrated Using an Example | |
Summary | |
Problems | |
Data Exploration, Dimensionality Reduction, and Feature Extraction | |
Introduction and Overview | |
Data Visualization Presented on Example Data | |
Correlation and Covariance between Variables | |
Normalization of Data | |
Example Illustrating Correlation, Covariance and Normalization | |
Selecting Relevant Inputs | |
Dimensionality Reduction and Feature Extraction | |
Example Illustrating Input Selection and Feature Extraction | |
Outlier Detection | |
Noise | |
Case Study: Illustrating Input Selection and Dimensionality Reduction for a | |
Practical Problem | |
Summary | |
Problems | |
Assessment of Uncertainty of Neural Network Models Using Bayesian Statistics | |
Introduction and Overview | |
Estimating Weight Uncertainty Using Bayesian Statistics | |
Case study Illustrating Weight Probability Distribution | |
Assessing Uncertainty of Neural Network Outputs Using Bayesian Statistics | |
Case Study Illustrating Uncertainty Assessment of Output Errors | |
Assessing the Sensitivity of Network Outputs to Inputs | |
Case Study Illustrating Uncertainty Assessment of Network Sensitivity to Inputs | |
Summary | |
Problems | |
Discovering Unknown Clusters in Data With Self-Organizing Maps | |
Introduction and Overview | |
Structure of Unsupervised Networks for Clustering Multidimensional Data | |
Learning in Unsupervised Networks | |
Implementation of Competitive Learning Illustrated Through Examples | |
Self-Organizing Feature Maps | |
Examples and Case Studies Using Self-Organizing Maps on Multi-Dimensional Data | |
Map Quality and Features Presented through Examples | |
Illustration of Forming Clusters on the Map and Cluster Characteristics | |
Map Validation and an Example | |
Evolving Self-Organizing Maps | |
Examples Illustrating Various Evolving Self Organizing Maps | |
Summary | |
Problems | |
Neural Networks for Time-Series Forecasting | |
Introduction and Overview | |
Linear Forecasting of Time-Series with Statistical and Neural Network Models | |
Example Case Study | |
Neural Networks for Nonlinear Time-Series Forecasting | |
Example Case Study | |
Hybrid Linear (ARIMA) and Nonlinear Neural Network Models | |
Example Case Study | |
Automatic Generation of Network Structure Using Simplest Structure Concept-Illustrated Through Practical Application Case Study | |
Generalized Neuron Network and Illustration Through Practical Application Case | |
Study | |
Dynamically Driven Recurrent Networks | |
Practical Application Case Studies | |
Bias and Variance in Time-Series Forecasting Illustrated Through an Example | |
Long-Term Forecasting and a Case study | |
Input Selection for Time-Series Forecasting | |
Case study for Input Selection | |
Summary | |
Problems | |
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