Brain-Inspired Intelligence and Visual Perception_PDF下载[98MB-百度云]王文峰

内容简介

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In the 19th century, Spanish anatomists founded the theory of neurons. With the development of brain science, the biological characteristics of neurons and related electrical properties have been discovered. The advent of mathematical methods to simulate the actual human neural network in 1943 can be recognized as one of the notable landmarks. 63 years since then, deep neural networks were proposed and developed to simulate the structure of the human cerebral cortex. The emergence of deep learning has a great influence on the traditional artificial intelligence and enhanced the importance of brain-inspired intelligence in the whole field of artificial intelligence. This is a great dream into reality!

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作者简介

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Wenfeng Wang is currently the leader of a CAS “Light of West China” Program (XBBS-2014-16) and has been invited as the director of the Institute of Artificial Intelligence, the College of Brain-inspired Intelligence, Chinese Academy of Sciences (to be set up in Nov. 2017). He also serves as a Distinguished Professor and the academic director of the R&D and Promotion center of artificial intelligence in the Robot Group of Harbin Institute of Technology, Hefei, China. His major research interests include functional analysis and intelligent algorithms with applications to video surveillance, ecologic modelling, geographic data mining and etc. He is the editor in chief of the book COMPUTER VISION AND MACHINE COGNITION (in Chinese), which has been published by Beihang University in China. Wenfeng Wang is enthusiastic in academic communications in any way and he served as PC members and Session chairs of a series of international conferences associated with the brain-inspired intelligence and visual cognition, including the 2017 IEEE International Conference on Advanced Robotics and Mechatronics, the 2017 International Conference on Information Science, Control Engineering and the 3rd International Conference on Cognitive Systems and Information Processing and etc. Xiangyang Deng is currently a full assistant professor with the Institute of Information Fusion, Naval Aeronautical University, Yantai, China. His current research interests include video big data, deep learning and computational intelligence. Xiangyang Deng has rich experience in R & D management. He won 3 First Class Prizes and 2 Third Class Prizes of Military Scientific and Technological Progress Award. He published 9 papers about the topics in the past 3 years while 5 of them were indexed by SCI, EI. He contributed to a monograph SWARM INTELLIGENCE AND APPLICATIONS (in Chinese), which was published by National Defense Industry Press. He has 2 patents and obtained 3 items of software copyright. Liang Ding is currently a full Professor with the State Key Laboratory of Robotics and System, Harbin Institute of Technology, Harbin, China. His current research interests include intelligent control and robotics, including planetary rovers and legged robots. Dr. Ding was a recipient of the 2017 ISTVS Söhne-Hata-Jurecka Award, the 2011 National Award for Technological Invention of China and the 2009/2013/2015 Award for Technological Invention of Heilongjiang Province. He received the Hiwin Excellent Doctoral Dissertation Award, the Best Conference Paper Award of IEEE ARM, and the Best Paper in Information Award of the 2012 IEEE ICIA Conference. Liang Ding is an influential scientist in intelligent control of robots and has published more than 120 authored or co-authored papers in journals and conference proceedings. Limin Zhang is currently a Full Professor and Tutor for Doctor with the Institute of Information Fusion, Naval Aeronautical University, Yantai, Shangdong, China. He was a senior visiting scholar at university college london (UCL) Modern Space Analysis and Research Center (CASA) from 2006 to 2007. His current research interests include signal processing, Complex system simulation and computational intelligence. More than 180 papers are published and 80 papers are indexed by SCI, EI. 2 monographs are published and 20 patents are applied and 6 were authorized. Limin Zhang has won two Second Class Prizes of National Scientific and Technological Progress Award and five First Class Prizes of Military Scientific and Technological Progress Award. He has been selected as outstanding scientists in national science and technology and millions of talents in engineering research field and he is enjoying special allowance from the State Council.

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1 Introduction of Brain Cognition /1
1.1Background/1
1.2TheoryandMechanisms /2
1.2.1 Brain Mechanisms to Determine
AttentionValue of Information in the Video / 3
1.2.2 Swarm Intelligence to Implement the
Above Biological
Mechanisms/4
1.2.3 Models Framework for Social Computing
in Object
Detection /5
1.2.4 Swarm Optimization and Classification
of the Target
Impulse Responses /5
1.2.5 Performance of Integration Models on
a Series of Challenging Real Data / 6
1.3FromDetectiontoTracking/ 7
1.3.1 Brain Mechanisms for Select Important
Objects to Track/8
1.3.2 Mechanisms for Motion Tracking by
Brain-Inspired
Robots /9
1.3.3 Sketch of Algorithms to Implement
Biological
Mechanisms in the Model /10
1.3.4 Model Framework of the Brain-Inspired
Compressive
Tracking and Future Applications /11
1.4Objectivesand Contributions / 12
1.5 Outline of the Book /13
1.6 References / 15
2 The Vision–Brain Hypothesis/17
2.1 Background / 17
2.2 Attention Mechanisms/19
2.2.1 Attention Mechanisms in Manned
Driving /19
2.2.2 Attention Mechanisms in Unmanned
Driving / 20
2.2.3 Implications to the Accuracy of
Cognition /21
2.2.4 Implications to the Speed of
Response/21
2.2.5 Future Treatment of Regulated
Attention /22
2.3 Locally Compressive Cognition/ 23
2.3.1 Construction of a Compressive
Attention /24
2.3.2 Locating Centroid of a Region of
Interest /25
2.3.3 Parameters and Classifiers of the
Cognitive System/25
2.3.4 Treating Noise Data in the Cognition
Process/26
2.4 An Example of the Vision–Brain / 27
2.4.1 Illustration of the Cognitive System
/29
2.4.2 Definition of a Vision–Brain / 31
2.4.3 Implementation of the Vision–Brain/32
References/ 34
3 Pheromone Accumulation and Iteration / 41
3.1 Background /41
3.2 Improving the Classical Ant Colony
Optimization / 43
3.2.1 Model of Ants’ Moving Environment /44
3.2.2 Ant Colony System: A Classical
Model/44
3.2.3 The Pheromone Modification Strategy
/46
3.2.4 Adaptive Adjustment of Involved
Sub-paths /47
3.3 Experiment Tests of the SPB-ACO / 48
3.3.1 Test of SPB Rule / 48
3.3.2 Test of Comparing the SPB-ACO with
ACS / 51
3.4 ACO Algorithm with Pheromone Marks/52
3.4.1 The Discussed Background Problem/52
3.4.2 The Basic Model of PM-ACO /53
3.4.3 The Improvement of PM-ACO/54
3.5 Two Coefficients of Ant Colony’s
Evolutionary Phases /55
3.5.1 Colony Diversity Coefficient/ 55
3.5.2 Elitist Individual Persistence
Coefficient /56
3.6 Experimental Tests of PM-ACO /56
3.6.1 Tests in Problems Which Have
Different Nodes / 57
3.6.2 Relationship Between CDC and EIPC /57
3.6.3 Tests About the Best-Ranked Nodes/58
3.7 Further Applications of the
Vision–Brain Hypothesis / 59
3.7.1 Scene Understanding and Partition/59
3.7.2 Efficiency of the Vision–Brain in
Face Recognition /63
References / 67
4 Neural Cognitive Computing Mechanisms /
69
4.1 Background /69
4.2 The Full State Constrained Wheeled
Mobile Robotic System / 71
4.2.1 System Description/ 71
4.2.2 Useful Technical Lemmas and
Assumptions/ 72
4.2.3 NN Approximation /73
4.3 The Controller Design and Theoretical
Analyses / 74
4.3.1 Controller Design / 74
4.3.2 Theoretic Analyses of the System
Stability /78
4.4 Validation of the Nonlinear WMR System
/ 81
4.4.1 Modeling Description of the Nonlinear
WMR System/81
4.4.2 Evaluating Performance of the
Nonlinear
WMR System /81
4.5 System Improvement by Reinforced
Learning/85
4.5.1 Scheme to Enhance the Wheeled Mobile
Robotic
System /85
4.5.2 Strategic Utility Function and Critic
NN Design /89
4.6 Stability Analysis of the Enhanced WMR
System/91
4.6.1 Action NN Design Under the Adaptive
Law/ 91
4.6.2 Boundedness Approach and the Tracking
Errors
Convergence/92
4.6.3 Simulation and Discussion of the WMR
System/ 96
References / 99
5 Integration and Scheduling of Core
Modules/105
5.1 Background / 105
5.2 Theoretical Analyses /106
5.2.1 Preliminary Formulation/ 106
5.2.2 Three-Layer Architecture /109
5.3 Simulation and Discussion/114
5.3.1 Brain-Inspired Cognition /114
5.3.2 Integrated Intelligence/ 119
5.3.3 Geospatial Visualization / 126
5.4 The Future Research Priorities / 131
5.4.1 Wheel–Terrain Interaction Mechanics
of Rovers/131
5.4.2 The Future Research Priorities /135
References / 136
6 Brain-Inspired Perception, Motion and
Control/143
6.1 Background / 143
6.2 Formulation of the Perceptive
Information / 145
6.2.1 Visual Signals in Cortical
Information Processing
Pathways
/145
6.2.2 Formulation of Cognition in the
Vision–Brain/146
6.3 A Conceptual Model to Evaluate
Cognition Efficiency /147
6.3.1 Computation of Attention Value and
Warning Levels/ 147
6.3.2 Detailed Analysis on the Time
Sequence Complexity / 151
6.4 From Perception to Cognition and
Decision / 155
6.4.1 Brain-Inspired Motion and Control of
Robotic
Systems /155
6.4.2 Layer Fusion of Sensors, Feature and
Knowledge / 155
6.5 The Major Principles to Implement a
Real Brain Cognition/158
6.5.1 Intelligence Extremes of the Robotic
Vision–Brain /158
6.5.2 Necessity to Set an up Limit for the
Robotic
Intelligence / 159
References / 161
Index /165