Machine Learning and Visual Perception / Edition 1

Machine Learning and Visual Perception / Edition 1

ISBN-10:
3110595532
ISBN-13:
9783110595536
Pub. Date:
04/20/2020
Publisher:
De Gruyter
ISBN-10:
3110595532
ISBN-13:
9783110595536
Pub. Date:
04/20/2020
Publisher:
De Gruyter
Machine Learning and Visual Perception / Edition 1

Machine Learning and Visual Perception / Edition 1

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Overview

Machine Learning and Visual Perception provides an up-to-date overview on the topic, including the PAC model, decision tree, Bayesian learning, support vector machines, AdaBoost, compressive sensing and so on.Both classic and novel algorithms are introduced in classifier design, face recognition, deep learning, time series recognition, image classification, and object detection.


Product Details

ISBN-13: 9783110595536
Publisher: De Gruyter
Publication date: 04/20/2020
Series: De Gruyter STEM
Pages: 152
Product dimensions: 6.69(w) x 9.45(h) x (d)
Age Range: 18 Years

About the Author

Baochang Zhang, Beihang University, Beijing, China

Table of Contents

Introduction 1

1 Introduction of machine learning 3

Introduction 3

1.1 Machine learning 3

1.1.1 Basic concepts 3

1.1.2 Definition and significance 4

1.1.3 History of machine learning 5

1.1.4 Machine learning system 6

1.1.5 Basic elements of the machine learning system 6

1.1.6 Category of machine learning 7

1.1.6.1 Classification based on learning strategies 7

1.1.6.2 Classification based on the representation of acquired knowledge 9

1.1.6.3 Classification based on application area 11

1.1.6.4 Comprehensive classification 11

1.1.7 Current research field 13

1.2 Statistical pattern recognition 14

1.2.1 Problem representation 15

1.2.2 Experience risk minimization 16

1.2.3 Complexity and generalization 17

1.3 Core theory of statistical learning 19

1.3.1 Consistency condition of the learning process 19

1.3.2 Generalization bounds 19

1.3.3 Structural risk minimization 22

Summary 24

2 PAC Model 25

Introduction 25

2.1 Basic model 25

2.1.1 Introduction of PAC 25

2.1.2 Basic concepts 26

2.1.3 Problematic 26

2.2 Sample complexity in the PAC model 27

2.2.1 Sample complexity in finite space 27

2.2.2 Sample complexity in infinite space 29

3 Decision tree learning 33

Introduction 33

3.1 Overview of a decision tree 33

3.1.1 Decision tree 34

3.1.2 Property 36

3.1.3 Application 36

3.1.4 Learning 37

3.2 Design of decision tree 37

3.2.1 Characteristics of decision trees 37

3.2.2 Generation of decision trees 38

Summary 45

4 Bayesian learning 47

Introduction 47

4.1 Bayesian learning 47

4.1.1 Bayesian formula 47

4.1.2 Minimum error decision 48

4.1.3 Normal probability density 49

4.1.4 Maximum likelihood estimation 50

4.2 Naive Bayesian principle and application 51

4.2.1 Bayesian best hypothesis 51

4.2.2 Naive Bayesian classification 52

4.2.3 Text classification based on Naive Bayes 53

4.3 Hidden Markov model and application 56

4.3.1 Markov property 56

4.3.2 Markov chain 56

4.3.3 Transition probability matrix 57

4.3.4 Hidden Markov model and application 57

Summary 60

5 Support vector machines 63

Introduction 63

5.1 Support vector machines 63

5.2 Implementation algorithm 69

5.3 SVM example 71

5.4 Multi-class SVM 73

Summary 74

6 AdaBoost 75

Introduction 75

6.1 AdaBoost and object detection 75

6.1.1 AdaBoost algorithm 75

6.1.2 AdaBoost initialization 77

6.2 Robust real-time object detection 80

6.2.1 Rectangular feature selection 80

6.2.2 Integral image 81

6.2.3 Training result 82

6.2.4 Cascade 82

6.3 Object detection using statistical learning theory 85

6.4 Random forest 86

6.4.1 Principle description 86

6.4.2 Algorithm details 86

6.4.3 Algorithms analysis 86

Summary 87

7 Compressed sensing 89

Introduction 89

7.1 Theory framework 89

7.2 Basic theory and core issues 91

7.2.1 Mathematical model 91

7.2.2 Signal sparse representation 91

7.2.3 Signal observation matrix 92

7.2.4 Signal reconstruction algorithm 93

7.3 Application and simulation 94

7.3.1 Application 94

7.3.2 Face recognition 95

Summary 97

8 Subspace learning 99

Introduction 99

8.1 Feature extraction based on PCA 99

8.2 Mathematical model 102

8.3 Mathematical calculation of PCA 103

8.3.1 Conclusions of linear algebra 103

8.3.2 Eigenvalue decomposition based on the covariance matrix 104

8.3.3 PCA 104

8.4 Property of PCA 105

8.5 Face recognition based on PCA 107

Summary 107

9 Deep learning and neural networks 109

Introduction 109

9.1 Neural network 109

9.1.1 Forward neural network 109

9.1.2 Perceptron network 109

9.1.3 Three-layer forward neural network 112

9.1.4 BP algorithm 112

9.2 Deep learning 116

9.2.1 Overview of deep learning 116

9.2.2 Auto-Encoder algorithm 117

9.2.3 Auto-Encoder deep network 118

9.2.4 Convolution neural network 119

9.3 Applications of deep learning 124

9.3.1 Binarized convolutional networks for classification 124

9.3.2 Time-series recognition 124

Summary 125

10 Reinforcement learning 127

Introduction 127

10.1 Overview of reinforcement learning 127

10.2 Process of reinforcement learning 128

10.2.1 Markov property 128

10.2.2 Reward 129

10.2.3 Value function 129

10.2.4 Dynamic programming 130

10.2.5 MC method 130

10.2.6 Temporal difference learning 131

10.2.7 Q-learning 132

10.2.8 Improved Q-learning 135

10.3 Code implementation 137

Bibliography 141

Index 143

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