List of Contributors | p. xvii |
Informatics Platform for Designing and Deploying e-Manufacturing Systems | p. 1 |
Introduction | p. 1 |
Systematic Methodology in Prognostics Design for e-Manufacturing | p. 5 |
Overview of 5S Methodology | p. 5 |
The 1st S - Streamline | p. 8 |
The 2nd S - Smart Processing | p. 10 |
The 3rd S - Synchronise | p. 11 |
The 4th S - Standardise | p. 13 |
The 5th S - Sustain | p. 13 |
Informatics Platform for Implementing e-Manufacturing Applications | p. 14 |
Modularised Prognostics Toolbox-Watchdog Agent Toolbox | p. 15 |
Automatic Tool Selection | p. 17 |
Decision Support Tools for the System Level | p. 19 |
Implementation of the Informatics Platform | p. 21 |
Industrial Case Studies | p. 23 |
Case Study 1 - Chiller Predictive Maintenance | p. 23 |
Case Study 2 - Spindle Bearing Health Assessment | p. 26 |
Case Study 3 - Smart Machine Predictive Maintenance | p. 29 |
Conclusions and Future Work | p. 33 |
References | p. 34 |
A Framework for Integrated Design of Mechatronic Systems | p. 37 |
Introduction | p. 37 |
State of the Art and Research Gaps | p. 40 |
Product Data Management | p. 40 |
Formats for Standardised Data Exchange | p. 41 |
The NIST Core Product Model | p. 42 |
Multi-representation Architecture | p. 43 |
Constraint-based Techniques | p. 44 |
Active Semantic Networks | p. 45 |
Summary and Research Gap Analysis | p. 46 |
An Approach to Integrated Design of Mechatronic Products | p. 48 |
Modelling Mechatronic Systems | p. 48 |
Constraint Classification in Mechanical Domain | p. 49 |
Constraint Classification in Electrical Domain | p. 52 |
Illustrative Example: a Robot Arm | p. 53 |
Overview of the Robot Arm | p. 53 |
Modelling Constraints for SG5-UT | p. 55 |
Requirements for a Computational Framework for Integrated Mechatronic Systems Design | p. 59 |
Electrical Design | p. 59 |
Mechanical and Electronic Design | p. 64 |
Integrated Design | p. 64 |
Conclusions | p. 68 |
References | p. 68 |
Fine Grain Feature Associations in Collaborative Design and Manufacturing - A Unified Approach | p. 71 |
Introduction | p. 71 |
Literature Review | p. 72 |
Geometric Relations | p. 72 |
Non-geometric Relations | p. 73 |
Unified Feature | p. 74 |
Fields | p. 76 |
Methods | p. 77 |
Entity Associations | p. 78 |
Implementing the Constraint-based Associations | p. 80 |
Implementing the Sharing Associations | p. 80 |
Evaluation of Validity and Integrity of Unified Feature Model | p. 82 |
Algorithms for Change Propagation | p. 82 |
Multiple View Consistency | p. 85 |
Cellular Model | p. 85 |
Using Cellular Topology in Feature-based Solid Modelling | p. 85 |
Extended Use of Cellular Model | p. 88 |
Characteristics of the Unified Cellular Model | p. 89 |
Two-dimensional Features and Their Characteristics | p. 91 |
Relation Hierarchy in the Unified Cellular Model | p. 92 |
Conclusions | p. 94 |
References | p. 95 |
Collaborative Supplier Integration for Product Design and Development | p. 99 |
Introduction | p. 99 |
Different Ways of Supplier Integration | p. 101 |
Know-how Sharing for Supplier Integration | p. 104 |
Collaboration Tools for Supplier Integration | p. 105 |
System Development | p. 108 |
Conclusions | p. 115 |
Acknowledgement | p. 115 |
References | p. 115 |
Reconfigurable Manufacturing Systems Design for a Contract Manufacturer Using a Co-operative Co-evolutionary Multi-agent Approach | p. 117 |
Introduction | p. 117 |
Related Research | p. 118 |
Co-operative Co-evolutionary Multi-agent Approach to Reconfigurable Manufacturing Systems Design | p. 120 |
Application of Approach to Reconfigurable Milling Machines | p. 122 |
Solution Representation | p. 122 |
Solution Evaluation | p. 123 |
Synthesising Machine Architecture Using an Evolutionary Algorithm | p. 129 |
Case Example | p. 131 |
Conclusions | p. 134 |
References | p. 135 |
A Web and Virtual Reality-based Platform for Collaborative Product Review and Customisation | p. 137 |
Introduction | p. 137 |
Collaborative Manufacturing Environment Framework | p. 139 |
Collaborative Product Reviewer | p. 141 |
Platform Design | p. 142 |
Platform Architecture | p. 142 |
Communication | p. 143 |
Platform Implementation and Functionality | p. 143 |
Collaboration Platform | p. 145 |
Virtual Reality Viewer | p. 146 |
Augmented Reality Viewer | p. 147 |
A Textiles Industry Use Case | p. 147 |
Conclusions | p. 150 |
Acknowledgement | p. 151 |
References | p. 151 |
Managing Collaborative Process Planning Activities through Extended Enterprise | p. 153 |
Introduction | p. 153 |
Review of Collaborative and Distributed Process Planning | p. 156 |
ICT Functionalities for Collaboration | p. 158 |
Basic Requirements for Knowledge, Information and Data Management | p. 159 |
Basic Requirements for Workflow Management | p. 161 |
Product Lifecycle Management Tools for Collaboration | p. 164 |
Reference Model for Collaborative Process Planning | p. 165 |
Collaborative Process Planning Activities Modelling | p. 167 |
Use Cases Modelling | p. 168 |
Sequence Diagrams Modelling | p. 170 |
Workflow Modelling | p. 171 |
Implementation of ICT References Architecture | p. 175 |
Case Study | p. 177 |
Setup of a Collaborative Environment | p. 177 |
Creation of Lifecycle Phases in a Manufacturing Process Plan | p. 179 |
Implementation of Required Workflow | p. 179 |
Results and Discussions | p. 179 |
Conclusions | p. 182 |
Acknowledgement | p. 183 |
References | p. 183 |
Adaptive Setup Planning for Job Shop Operations under Uncertainty | p. 187 |
Introduction | p. 187 |
Literature Review | p. 188 |
Adaptive Setup Planning | p. 190 |
Research Background | p. 190 |
Generic Setup Planning | p. 191 |
Setup Merging on a Single Machine | p. 192 |
Adaptive Setup Merging across Machines | p. 198 |
Implementation and Case Study | p. 206 |
Prototype Implementation | p. 206 |
A Case Study | p. 206 |
Optimisation Results | p. 209 |
Discussion | p. 213 |
Conclusions | p. 214 |
Acknowledgement | p. 215 |
References | p. 215 |
Auction-based Heuristic in Digitised Manufacturing Environment for Part Type Selection and Operation Allocation | p. 217 |
Introduction | p. 217 |
Overview of Agent Technology | p. 221 |
Definition of an Agent and its Properties | p. 221 |
Heterarchical Control Framework | p. 222 |
Contract-net Protocol (CNP) | p. 222 |
Overview of Auction Mechanism | p. 223 |
Problem Definition | p. 224 |
Proposed Framework | p. 225 |
Agent Architecture | p. 225 |
Framework with Agent Architecture | p. 227 |
Framework of Auction Mechanism | p. 229 |
Communications among Agents | p. 231 |
Task Decomposition/Distribution Pattern | p. 231 |
Heuristic Rules for Sequencing and Part Selection | p. 232 |
Case Study | p. 234 |
Winner Determination | p. 234 |
Analysis of the Best Sequence | p. 236 |
Results and Discussion | p. 236 |
Conclusions | p. 240 |
Acknowledgement | p. 241 |
References | p. 241 |
A Web-based Rapid Prototyping Manufacturing System for Rapid Product Development | p. 245 |
Introduction | p. 245 |
Web-based RP&M Systems: a Comprehensive Review | p. 246 |
Various Architectures for Web-based RP&M Systems | p. 246 |
Key Issues in Developing Web-based RP&M Systems | p. 248 |
An Integrated Manufacturing System for Rapid Product Development Based on RP&M | p. 251 |
Workflow of a Web-based RP&M System | p. 253 |
Architecture of a Web-based RP&M System | p. 254 |
Development of a Web-based RP&M System | p. 258 |
Case Study | p. 259 |
Conclusions | p. 261 |
Acknowledgement | p. 262 |
References | p. 262 |
Agent-based Control for Desktop Assembly Factories | p. 265 |
Introduction | p. 265 |
Agent-based Manufacturing Control | p. 267 |
Collaborative Industrial Automation | p. 268 |
Agent-based Control: the State of the Art | p. 269 |
Further Work Required | p. 271 |
Actor-based Assembly Systems Architecture | p. 272 |
Architecture Overview | p. 273 |
Intelligent Physical Agents: Actors | p. 274 |
Agent Societies: ABAS Systems | p. 276 |
Actor Contact Features | p. 279 |
ABAS Engineering Framework | p. 282 |
ABAS WorkBench | p. 283 |
ABAS Viewer | p. 284 |
Actor Blueprint | p. 285 |
Case Studies | p. 286 |
Experimental Development of Actor Prototypes | p. 286 |
Experimental Results and Future Directions | p. 287 |
Conclusions | p. 289 |
References | p. 289 |
Information Sharing in Digital Manufacturing Based on STEP and XML | p. 293 |
Introduction | p. 293 |
STEP as a Neutral Product Data Format | p. 294 |
Components of STEP | p. 295 |
XML as the "Information Carrier" | p. 298 |
Development and Application Domain of XML | p. 299 |
Express-XML DTD Binding Methods | p. 299 |
A Digital Manufacturing Support System | p. 300 |
System Architecture | p. 301 |
Overview of the System | p. 301 |
System Functionality | p. 302 |
Converter | p. 306 |
Late Binding Rules | p. 307 |
System Interface | p. 307 |
Conclusions | p. 309 |
References | p. 311 |
Appendix | p. 312 |
Pulling the Value Streams of a Virtual Enterprise with a Web-based Kanban System | p. 317 |
Introduction | p. 317 |
Lean Systems and Virtual Enterprises | p. 319 |
Lean Manufacturing Systems | p. 319 |
Lean Supply Chain | p. 320 |
Agile Virtual Enterprise | p. 321 |
From Kanban Cards to Web-based Kanban | p. 322 |
Kanban Systems: The Enabler of Just-in-Time | p. 322 |
Weakness of Conventional Kanban Systems | p. 323 |
Web-based Technology and e-Kanban | p. 324 |
Building a Web-based Kanban System | p. 325 |
Infrastructure and Functionality of a Web-based Kanban System | p. 326 |
An Experimental System Using PHP+MySQL | p. 328 |
Pulling the Value Streams of a Virtual Enterprise | p. 331 |
Web-based Kanban for Virtual Cells | p. 331 |
Cyber-enabled Agile Virtual Enterprise | p. 333 |
Challenges and Future Research | p. 335 |
Challenges of Web-based Kanban in an Agile Virtual Enterprise | p. 336 |
Conclusions and Future Research | p. 337 |
Acknowledgement | p. 337 |
References | p. 338 |
Agent-based Workflow Management for RFID-enabled Real-time Reconfigurable Manufacturing | p. 341 |
Introduction | p. 342 |
Overview of Real-time Reconfigurable Manufacturing | p. 345 |
Overview of Shop-floor Gateway | p. 347 |
Workflow Management | p. 347 |
Manufacturing Services UDDI | p. 348 |
Agents-based Manufacturing Services | p. 349 |
Overview of Work-cell Gateway | p. 350 |
Agent-based Workflow Management for RTM | p. 351 |
Workflow Model | p. 351 |
Workflow Definition | p. 353 |
Workflow Execution | p. 354 |
Case Study | p. 355 |
Re-engineering Manufacturing Job Shops | p. 355 |
Definition of Agents and Workflow | p. 357 |
Facilities for Operators and Supervisors | p. 359 |
WIP Logistics Process | p. 360 |
Conclusions | p. 362 |
Acknowledgements | p. 362 |
References | p. 363 |
Web-based Production Management and Control in a Distributed Manufacturing Environment | p. 365 |
Introduction | p. 366 |
Overview | p. 367 |
ERP Systems | p. 367 |
Electronic Manufacturing (e-Mfg) | p. 368 |
WebMachining Methodology | p. 368 |
CyberCut | p. 369 |
Promme Methodology | p. 369 |
Distributed Shop Floor | p. 369 |
ERP Manufacturing | p. 370 |
System Modelling | p. 373 |
IDEF0 | p. 373 |
UML | p. 375 |
Web-based Shop Floor Controller | p. 376 |
Communication within the Flexible Manufacturing Cell | p. 376 |
Web-based Shop Floor Controller Implementation | p. 376 |
Results | p. 382 |
Conclusions | p. 385 |
References | p. 387 |
Flexibility Measures for Distributed Manufacturing Systems | p. 389 |
Introduction | p. 389 |
Routing Flexibility | p. 390 |
Numerical Examples | p. 394 |
Network Flexibility | p. 398 |
Numerical Examples | p. 400 |
Conclusions | p. 404 |
References | p. 404 |
Index | p. 407 |
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