Advances in Intelligent Robotics and Collaborative Automation ¿ ( River Publishers Series in Automation, Control and Robotics )

Publication series :River Publishers Series in Automation, Control and Robotics

Author: Duro> Richard  

Publisher: River Publishers‎

Publication year: 2015

E-ISBN: 9788793237049

P-ISBN(Paperback): 9788793237032

Subject: TP242 Robot

Keyword: 机器人技术,自动化技术、计算机技术

Language: ENG

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Chapter

2.6 The Dynamics of the Mechanism with a ParallelStructure Obtained by Means of the IncompleteData Identification

2.7 Verification of the Structural Identification Results

2.8 Conclusions

References

Chapter 3 - An Autonomous Scale Ship Model forParametric Rolling Towing Tank Testing

Abstract

3.1 Introduction

3.2 System Architecture

3.2.1 Data Acquisition

3.2.2 Software Systems

3.2.3 Speed Control

3.2.4 Track-Keeping Control

3.2.5 Other Components

3.3 Testing

3.3.1 Prediction System

3.3.2 Prevention System

3.3.3 Towing Tank Tests and Results

3.3.3.1 Mathematical model validation

3.3.3.2 Validation of stability diagrams

3.3.3.3 Prediction system tests

3.4 Conclusions and FutureWork

References

Chapter 4 - Autonomous Knowledge Discovery Basedon Artificial Curiosity-Driven Learningby Interaction

Abstract

4.1 Introduction

4.2 Proposed System and Role of Curiosity

4.2.1 Interpretation from Observation

4.2.2 Search for the Most Coherent Interpretation

4.2.3 Human-Robot Interaction

4.3 Validation Results by Simulation

4.4 Implementation on Real Robot and Validation Results

4.4.1 Implementation

4.4.2 Validation Results

4.5 Conclusions

References

Chapter 5 - Information Technology for InteractiveRobot Task Training ThroughDemonstration of Movement1

Abstract

5.1 Introduction

5.2 Conception and Principles of Motion Modeling

5.2.1 Generalized Model of Motion

5.2.2 Algorithm for Robot Task Training by Demonstration

5.2.3 Algorithm for Motion Reproduction after Task Training byDemonstration

5.2.4 Verification of Results for the Task of Training theTelecontrolled (Remote Controlled) Robot

5.2.5 Major Advantages of Task Training by Demonstration

5.3 Algorithms and Models for Teaching Movements

5.3.1 Task Training by Demonstration of Movement amongthe Objects of the Environment

5.3.2 Basic Algorithms for RobotTaskTraining by Demonstration

5.3.3 Training Algorithm for the Environmental Survey Motion

5.3.4 Training Algorithm for Grabbing a Single Object

5.3.5 Special Features of the Algorithm for Reproduction ofMovements

5.3.6 Some Results of Experimental Studies

5.3.7 Overview of the Environment for Task Training byDemonstration of the Movements of the Human Head

5.3.8 Training the Robot to Grab Objects by Demonstration ofOperator Hand Movements

5.4 Conclusions

References

Chapter 6 - A Multi-Agent Reinforcement LearningApproach for the Efficient Controlof Mobile Robots

Abstract

6.1 Introduction

6.2 Holonic Homogenous Multi-Agent Systems

6.2.1 Holonic, Multi-Agent Systems

6.2.2 Homogenous, Multi-Agent Systems

6.2.3 Approach to Commitment and Coordination in H2 MAS

6.2.4 Learning to Coordinate Through Interaction

6.3 Vehicle Steering Module

6.4 A Decomposition of Mobile Platform

6.5 The Robot Control System Learning

6.5.1 Learning of the Turning of a Module-Agent

6.5.1.1 Simulation

6.5.1.2 Verification

6.5.2 Learning of the Turning of a Module-Agent

6.5.2.1 Simulation

6.5.2.2 Verification

6.6 Conclusions

References

Chapter 7 - Underwater Robot Intelligent Control Basedon Multilayer Neural Network

Abstract

7.1 Introduction

7.2 Underwater Robot Model

7.3 Intelligent NN Controller and Learning AlgorithmDerivation

7.4 Simulation Results of the Intelligent NN Controller

7.5 Modification of NN Control

7.6 Conclusions

Acknowledgement

References

Chapter 8 - Advanced Trends in Design of SlipDisplacement Sensors for Intelligent Robots

Abstract

8.1 Introduction

8.2 Analysis of Robot Task Solving Based on SlipDisplacement Signals Detection

8.3 Analysis of Methods for Slip Displacement SensorsDesign

8.4 Mathematical Model of Magnetic Slip DisplacementSensor

8.4.1 SDS Based on “Permanent Magnet/Hall Sensor” SensitiveElement and Its Mathematical Model

8.4.2 Simulation Results

8.5 Advanced Approaches for Increasing the Efficiencyof Slip Displacement Sensors

8.6 Advances in Development of Smart Grippers forIntelligent Robots

8.6.1 Self-Clamping Grippers of Intelligent Robots

8.6.2 Slip Displacement Signal Processing in Real Time

8.7 Conclusions

References

Chapter 9 - Distributed Data Acquisition and ControlSystems for a Sized Autonomous Vehicle

Abstract

9.1 Introduction

9.2 The Testing Environment

9.3 Description of the System

9.4 Lane Detection

9.4.1 In-Range Filter

9.4.2 Hough-Transformation

9.4.3 Lane Marks

9.4.4 Polynomial

9.4.5 Driving Lane

9.4.6 Stop Line

9.4.7 Coordinate Transformation

9.5 Control of the Vehicle

9.6 Results

9.7 Conclusions

References

Chapter 10 - Polymetric Sensing in Intelligent Systems

Abstract

10.1 Topicality of Polymetric Sensing

10.2 Advanced Perception Components of IntelligentSystems or Robots

10.2.1 Comparison of the Basics of Classical and PolymetricSensing

10.2.2 Advanced Structure of Multi-Agent Intelligent Systems

10.3 Practical Example of Polymetric Sensing

10.3.1 Adding the Time Scale

10.3.2 Adding the Information about the Velocity of theElectromagneticWave

10.4 Efficiency of Industrial Polymetric Systems

10.4.1 Naval Application

10.4.1.1 Sensory monitoring agency SMA

10.4.1.2 Information Environment Agency INE

10.4.1.3 Operator Interface Agency OPI

10.4.1.4 Advantages of the polymetric sensing

10.4.1.5 Floating dock operation control system

10.4.1.6 Onshore applications

10.4.1.7 Special applications

10.5 Conclusions

References

Chapter 11 - Design and Implementation of WirelessSensor Network Based on MultilevelFemtocells for Home Monitoring

Abstract

11.1 Introduction

11.2 Network Architecture and Femtocell Structure

11.2.1 Body Sensor Network

11.2.2 Ambient Sensor Network

11.2.3 Emergency Sensor Network

11.2.4 Higher-level Architecture and Functional Overview

11.3 Data Processing

11.4 Experimental Results

11.5 Conclusion

References

Chapter 12 - Common Framework Modelfor Multi-Purpose Underwater DataCollection Devices Deployed with RemotelyOperated Vehicles

Abstract

12.1 Introduction

12.2 Research Challenges

12.2.1 Power Supply

12.2.2 Communications

12.2.3 Maintenance

12.2.4 Law and Finance

12.2.5 Possible Applications

12.3 Mathematical Model

12.3.1 System Definition

12.3.2 Actuator Definition

12.3.3 Sensor Definition

12.4 ROV

12.4.1 ROV Manipulator Systems

12.4.2 Types of Offshore Constructions

12.5 ROV Simulator

12.6 Common Modular Framework

12.7 Conclusions

References

Chapter 13 - M2M in Agriculture – Business Modelsand Security Issues

Abstract

13.1 Introduction

13.2 RelatedWork

13.3 Communication and Standardization

13.4 Business Cases

13.4.1 Process Transparency (PT)

13.4.2 Operations Data Acquisition (ODA)

13.4.3 Remote Software Update (RSU)

13.5 Business Models

13.6 Economic Analysis

13.7 Communication Security

13.7.1 CA

13.7.2 Communicating On-the-Go

13.7.3 Covering Dead Spots

13.7.4 Securing WLAN Infrastructures

13.7.5 Firmware Update

13.8 Resume

13.9 Acknowledgement

References

Index

Editor’s Biographies

Author’s Biographies

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