Skip to:Content
|
Bottom
Cover image for ANEMONA : a multi-agent methodology for holonic manufacturing systems
Title:
ANEMONA : a multi-agent methodology for holonic manufacturing systems
Personal Author:
Series:
Springer series in advanced manufacturing
Publication Information:
London : Springer, 2008
Physical Description:
xv, 214 p. : ill. ; 24 cm.
ISBN:
9781848003095
Added Author:

Available:*

Library
Item Barcode
Call Number
Material Type
Item Category 1
Status
Searching...
30000010194275 TS155.63 B67 2008 Open Access Book Book
Searching...

On Order

Summary

Summary

ANEMONA is a multi-agent system (MAS) methodology for holonic manufacturing system (HMS) analysis and design. ANEMONA defines a mixed top-down and bottom-up development process, and provides HMS-specific guidelines to help designers identify and implement holons. The analysis phase is defined in two stages: System Requirements Analysis, and Holon Identification and Specification. This analysis provides high-level HMS specifications, adopting a top-down recursive approach which provides a set of elementary elements and assembling rules. The next stage is Holon Design, a bottom-up process to produce the system architecture from the analysis models. The Holons Implementation stage produces an Executable Code for the SetUp and Configuration stage. Finally, maintenances functions are executed in the Operation and Maintenance stage. The book will be of interest to researchers and students involved in artificial intelligence and software engineering, and manufacturing engineers in industry and academia.


Author Notes

Vicente Botti is head of the Group de Tecnologia Informatica - Inteligencia Artificial (GTI-IA) at the Universidad Politécnica de Valencia. His research interests are real-time artificial intelligence and multiagent systems.

Adriana Giret has a PhD in Computer Science and lectures at the Universidad de Valencia, where she works within the Departamento de Sistemas Informaticos y Computacion. Her research interests are multiagent systems; holonic manufacturing systems; and agent-supported simulation for manufacturing systems.


Table of Contents

Acronymsp. xv
1 Introductionp. 1
1.1 Structure of the Bookp. 2
Part I Backgrounds
2 Holonic Manufacturing Systemsp. 7
2.1 Holonp. 8
2.2 Holonic Manufacturing Systems - HMSp. 9
2.3 HMS State-of-the-Artp. 10
2.3.1 Holon Architecturep. 10
2.3.2 Holons Interconnectionp. 15
2.3.3 Holons Operationp. 17
2.3.4 Holonic Controlp. 19
2.3.5 Methods for HMS Developmentp. 20
2.4 Conclusionsp. 20
3 Holons and Agentsp. 21
3.1 Agentsp. 21
3.2 Holons and Agents: Two Similar Modeling Notionsp. 22
3.2.1 Autonomyp. 23
3.2.2 Reactivityp. 23
3.2.3 Proactivityp. 24
3.2.4 Sociabilityp. 25
3.2.5 Cooperationp. 26
3.2.6 Opennessp. 26
3.2.7 Rationalityp. 27
3.2.8 Mental Attitudesp. 28
3.2.9 Learningp. 28
3.2.10 Benevolencep. 29
3.2.11 Mobilityp. 29
3.2.12 Recursivenessp. 29
3.2.13 Physical and Information Processing Partp. 30
3.3 Recursivenessp. 30
3.4 Abstract Agentp. 32
3.4.1 Abstract-agent Structurep. 34
3.5 Conclusionp. 38
Part II Methodology for Holonic Manufacturing System
4 HMS Developmentp. 41
4.1 Modeling Requirementsp. 41
4.1.1 Functional Requirementsp. 41
4.1.2 Software Engineering Requirementsp. 42
4.2 Holonic Manufacturing System Methodologiesp. 44
4.3 Multi-agent System Methodsp. 45
4.3.1 General-purpose MAS Methodsp. 45
4.3.2 MAS Methods for Manufacturing Systemsp. 52
4.4 Enterprise Modelingp. 53
4.5 Comparative Overviewp. 54
4.6 Conclusionsp. 57
5 ANEMONA Notationp. 59
5.1 ANEMONA Metamodelp. 60
5.2 Basic Modeling Entitiesp. 62
5.3 Agent Modelp. 66
5.3.1 Abstract Agent and Rolep. 67
5.3.2 Abstract Agent, Role and Goalp. 67
5.3.3 Abstract Agent and Beliefp. 68
5.3.4 Abstract Agent, Role and Taskp. 68
5.4 Task/Goal Modelp. 70
5.4.1 Abstract Agent, Task and Goalsp. 70
5.4.2 Task, Goals and Beliefsp. 72
5.4.3 Task Specificationp. 73
5.4.4 Goal Decomposition and Goal Dependenciesp. 75
5.5 Interaction Modelp. 78
5.5.1 Interactions, Abstract Agents, Roles and Goalsp. 79
5.5.2 Interactions, Interaction Units, Abstract Agents, Roles and Tasksp. 80
5.5.3 Interaction Specificationp. 82
5.5.4 Interactions and Organizationsp. 83
5.6 Environment Modelp. 83
5.7 Organization Modelp. 84
5.7.1 Organization Structurep. 85
5.7.2 Social Relations Among Autonomous Entitiesp. 86
5.7.3 Organization Functional Definitionp. 88
5.8 Conclusionsp. 89
6 ANEMONA Development Processp. 91
6.1 SPEMp. 91
6.2 A Simplified Supply Chain Case Studyp. 92
6.3 The Methodp. 93
6.3.1 System Requirementp. 94
6.3.2 Analysisp. 97
6.3.3 Designp. 117
6.3.4 Holon Implementationp. 130
6.3.5 Setup and Configurationp. 132
6.3.6 Operation and Maintenancep. 132
6.4 Conclusionsp. 132
Part III Evaluation and Case Study
7 Evaluation of the ANEMONA Methodologyp. 137
7.1 ANEMONA Applicability to Intelligent Manufacturing Problemsp. 138
7.2 ANEMONA vs. State-of-the-Art Methodsp. 141
7.3 Conclusionsp. 142
8 Case Studyp. 143
8.1 Requirementsp. 143
8.1.1 Organizational Chart/Departmentsp. 144
8.1.2 Business Processesp. 147
8.1.3 System Scopep. 149
8.1.4 Processes to Controlp. 149
8.1.5 Operation Conditionsp. 154
8.1.6 Goalsp. 155
8.2 Analysisp. 156
8.2.1 Iteration 1p. 156
8.2.2 Iteration 2p. 168
8.2.3 Iteration 3p. 179
8.3 Designp. 185
8.3.1 Holons Specificationp. 185
8.3.2 System Architecturep. 195
8.4 Conclusionsp. 200
9 Conclusionsp. 201
9.1 Reviewp. 201
9.2 Future Workp. 203
Referencesp. 205
Indexp. 213
Go to:Top of Page