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El. knyga: Ripple-Down Rules: The Alternative to Machine Learning

(University of Tasmania, Tasmania, Australia), (The University of New South Wales, Syndey, Australia)
  • Formatas: 196 pages
  • Išleidimo metai: 30-May-2021
  • Leidėjas: Chapman & Hall/CRC
  • Kalba: eng
  • ISBN-13: 9781000363586
  • Formatas: 196 pages
  • Išleidimo metai: 30-May-2021
  • Leidėjas: Chapman & Hall/CRC
  • Kalba: eng
  • ISBN-13: 9781000363586

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Machine learning algorithms hold out extraordinary promise, but the reality is that their success depends entirely on the suitability of the data available. This book is about Ripple-Down Rules (RDR) an alternative manual technique for rapidly building AI systems. With a human in the loop, RDR is much better able to deal with the limitations of the data.

Ripple-Down Rules: The Alternative to Machine Learning starts by reviewing the problems with data quality, and the problems with conventional approaches to incorporating expert human knowledge into AI systems. It suggests that problems with knowledge acquisition arise because of mistaken philosophical assumptions about knowledge. It argues people never really explain how they reach a conclusion, rather they justify their conclusion by differentiating between cases in a context, and RDR is based on this more situated understanding of knowledge. The central features of an RDR approach are explained, and detailed worked examples are presented for different types of RDR, based on freely available software developed for this book. The examples ensure developers have a clear enough idea of the simple yet counter-intuitive RDR algorithms to easily build their own RDR systems.

It has been proven in industrial application that it takes only a minute or two per rule to build RDR systems with perhaps thousands of rules. The industrial uses of RDR have ranged from medical diagnosis, through data cleansing to chatbots in cars. RDR can be used standalone or to improve the performance of machine learning or other methods.

Recenzijos

"In this era of deep learning, where is our deeper understanding of AI? The answer is, here, in this book. Compton and Kang's ideas are a "must-read" for anyone working with AI. Based on very many examples of real-world applications, they show us a better way to use AI. If your AI models are confusing to understand and hard to maintain, then this book is for you."

-- Tim Menzies, Professor, North Carolina State University "In this era of deep learning, where is our deeper understanding of AI? The answer is, here, in this book. Compton and Kang's ideas are a "must-read" for anyone working with AI. Based on very many examples of real-world applications, they show us a better way to use AI. If your AI models are confusing to understand and hard to maintain, then this book is for you."

-- Tim Menzies, Professor, North Carolina State University

Preface ix
Acknowledgements xiii
About the Authors xv
Chapter 1 Problems with Machine Learning and Knowledge Acquisition
1(14)
1.1 Introduction
1(1)
1.2 Machine Learning
2(5)
1.3 Knowledge Acquisition
7(6)
Note
13(2)
Chapter 2 Philosophical Issues in Knowledge Acquisition
15(8)
NoteS
21(2)
Chapter 3 Ripple-Down Rule Overview
23(8)
3.1 Case-Driven Knowledge Acquisition
23(1)
3.2 Order of Cases Processed
24(1)
3.3 Linked Production Rules
25(2)
3.4 Adding Rules
27(1)
3.5 Assertions and Retractions
28(1)
3.6 Formulae in Conclusions
28(1)
Note
29(2)
Chapter 4 Introduction to Excel Rdr
31(6)
Note
35(2)
Chapter 5 Single Classification Example
37(18)
5.1 Repetition in An Scrdr Knowledge Base
48(3)
5.2 Scrdr Evaluation and Machine Learning Comparison
51(3)
5.3 Summary
54(1)
NoteS
54(1)
Chapter 6 Multiple Classification Example
55(26)
6.1 Introduction to Multiple Classification Ripple-Down Rules (Mcrdr)
55(1)
6.2 Excel_Mcrdr Example
56(12)
6.3 Discussion: Mcrdr For Single Classification
68(2)
6.4 Actual Multiple Classification with Mcrdr
70(6)
6.5 Discussion
76(2)
6.6 Summary
78(3)
Chapter 7 General Ripple-Down Rules (Grdr)
81(28)
7.1 Background
81(2)
7.2 Key Features of Grdr
83(4)
7.3 Excel_Grdr Demo
87(17)
7.4 Discussion: Grdr, Mcrdr and Scrdr
104(4)
Note
108(1)
Chapter 8 Implementation and Deployment of An Rdr-Based System
109(12)
8.1 Validation
109(4)
8.2 The Role of the User/Expert
113(1)
8.3 Cornerstone Cases
114(2)
8.4 Explanation
116(1)
8.5 Implementation Issues
117(1)
8.6 Information System Interfaces
118(1)
NoteS
119(2)
Chapter 9 Rdr and Machine Learning
121(16)
9.1 Suitable Datasets
122(2)
9.2 Human Experience Versus Statistics
124(1)
9.3 Unbalanced Data
125(3)
9.4 Prudence
128(2)
9.5 Rdr-Based Machine Learning Methods
130(1)
9.6 Machine Learning Combined with Rdr Knowledge Acquisition
131(1)
9.7 Machine Learning Supporting Rdr
132(2)
9.8 Summary
134(1)
Note
135(2)
APPENDIX 1 Industrial Applications of RDR
137(8)
A1.1 Peirs (1991--1995)
137(1)
A1.2 Pacific Knowledge Systems
138(1)
A1.3 Ms
139(1)
A1.4 Erudine Pty Ltd
140(1)
A1.5 Ripple-Down Rules at Ibm
141(1)
A1.6 Yawl
141(1)
A1.7 Medscope
142(1)
A1.8 Seegene
142(1)
A1.9 Ipms
142(1)
A1.10 Tapacross
143(1)
A1.11 Other
143(1)
NoteS
143(2)
APPENDIX 2 Research-Demonstrated Applications
145(14)
A2.1 Rdr Wrappers
145(2)
A2.2 Text-Processing, Natural Language Processing and Information Retrieval
147(4)
A2.3 Conversational Agents and Help Desks
151(2)
A2.4 Rdr For Operator and Parameter Selection
153(2)
A2.5 Anomaly and Event Detection
155(1)
A2.6 Rdr For Image and Video Processing
156(3)
References 159(16)
Index 175
Paul Compton initially studied philosophy before majoring in physics. He spent 20 years as a biophysicist at the Garvan Institute of Medical Research, and then 20 years in Computer Science and Engineering at the University of New South Wales, where he was head of school for 12 years and is now an emeritus professor.

Byeong Ho Kang majored in mathematics in Korea, followed by a PhD on Ripple-Down Rules at the University of New South Wales and the algorithm he developed is the basis of most industry RDR applications. He is a professor, with a research focus on applications, and head of the ICT discipline at the University of Tasmania."