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The development and application of a simulation approach to advanced manufacturing systems planning

By R. I. Mills

Abstract

In the competitive field of metalworking industry, the planning of manufacturing systems so as to maximise their performance is crucial. The relatively new field of Flexible Manufacturing Systems presents a new set of planning challenges to the production engineer. This is due to the integrated nature of the these systems and the resultant effects upon their performance. This thesis presents a structured approach to the planning of materials flow within these systems and develops it by the analysis of several proposed manufacturing systems. The approach is based upon the use of mathematical and discrete event simulation techniques. The thesis gives the background to the need for a structured approach, investigates the parallel development of simulation languages and related techniques as applied to manufacturing facilities planning; and of the Flexible Manufacturing Systems themselves. The approach is then detailed and some specific types of planning tool are identified as suitable for use at each project stage. The effects upon the system of the integration of separate units, especially in low work in progress environments, are discussed in some detail. The methodology developed is then used in the context of three projects, specifically developing the theme of automated tool handling and the requirements that it places upon other aspects of a manufacturing system. The projects cover the analysis of pooling strategies, a key factor in determining tool magazine sizes and handling capacity/frequency demands; an academic analysis of a system with both component and tool handling systems; and an advanced Flexible Manufacturing System, also with both automated component and tool handling, which is currently being installed. Conclusions are presented at each stage, and these are drawn together to form a foundation for the planning of materials flow within Flexible Manufacturing Systems in general. Finally, suggestions are made for future work to develop the analysis

Publisher: Cranfield University
Year: 1987
OAI identifier: oai:dspace.lib.cranfield.ac.uk:1826/4208
Provided by: Cranfield CERES

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Citations

  1. (1965). A Computer Simulation Language in ALGOL,
  2. (1973). A Flexible Manufacturing System,
  3. (1982). A Modular Approach to Flexible Manufacturing,
  4. (1960). An Integrated Project for the Design and Appraisal of Mechanized Decision-making Control Systems, doi
  5. (1983). An Introduction to Simulation Support Software, doi
  6. (1978). An Investigation of Visual Interactive Simulation Using the Jobshop Approach, doi
  7. (1984). Analysis of Manufacturing Systems by the Research Queuing Package, doi
  8. (1980). ASP Programme Developments, doi
  9. (1982). Automatic Tool Setting, doi
  10. (1987). Bus Puts Heller FMS Into Use,
  11. (1986). CIM Solves the Problem at Victor, Computerised Manufacturing, doi
  12. (1974). Commercially Viable AMT - The Role of Simulation doi
  13. (1980). Comparison of Manufacturing Systems Simulators,
  14. (1986). Computer Integration of Advanced Manufacture, doi
  15. (1983). Computer Simulation of FMS,
  16. (1977). Computer Techniques Isolate Production Snags,
  17. (1980). Computerised Physical Simulators are Developed to Solve
  18. (1979). Concepts for Advanced Simulation Methodologies, doi
  19. (1982). Control is Key to Complete FMS, Metalworking Production,
  20. (1982). Design and Evaluation of Flexible Manufacturing Systems, An Analysis Using Simulation,
  21. (1983). Designing a Real-Time Robot Production Cell,
  22. (1982). Digital Simulation of a Proposed flexible Manufacturing System,
  23. (1982). Economics of FMS Compared with CNC,
  24. (1986). Evaluating FMS by Simulation, doi
  25. (1978). Fiat's New Approach, Automotive Industries,
  26. (1982). Flexible Automation - Unmanned and Assembly Cells with Robots,
  27. (1981). Flexible Handling Systems for Axially Symmetrical Components, doi
  28. (1983). Flexible Manufacturing Systems in
  29. (1981). Flexible Manufacturing Systems with Automatic Transport of Tools, doi
  30. (1976). Flexible Manufacturing Systems, A Solution for the Mid-Volume, Mid-Variety Parts Manufacturer, Understanding Manufacturing Systems, Volume I,
  31. (1980). Flexible Transport Systems,
  32. (1983). Flow Control Effects on Facility Planning,
  33. (1985). FMS Control Strategy -A Survey of the Determining Characteristics,
  34. (1984). FMS Designers' Requirements for Equipment Selection and Scheme Validation,
  35. (1981). FMS Developments in the UK,
  36. (1985). FMS in Perspective, Presentation to Nederlandse Phillips Bedruigen Bv,
  37. (1985). FMS Simulation: Needs, Experience, Facilities,
  38. (1983). Formulation and Solution of Nonlinear Integer Production Planning Problems for Flexible Manufacturing Systems, doi
  39. (1977). General Computerized Manufacturing Systems Simulator (GCMS), The Optimal Planning of Computerized Manufacturing Systems,
  40. (1986). General Theories of Flexible Integration, doi
  41. (1986). How to Place a Very Tall Order and Win,
  42. (1986). Integrated Manufacturing Systems - The Role of Simulation,
  43. (1982). Integrated Transfer Line Manufacturing Systems,
  44. (1979). Interactive Computer Modelling Provides a New Laboratory Facility for Production Systems,
  45. (1985). Interruptions Put Up Overheads, Chartered Mechanical Engineer,
  46. (1985). Introduction to SIMAN (4th Edition), Systems Modeling Corporation, State College,
  47. (1987). Learning and Growing - Five Years with SCAMP,
  48. (1983). MAST: A Simulation Tool for Designing Computerized Metalworking Facilities, doi
  49. (1978). Mix the Models When the Robots Do the Welding,
  50. (1971). Molins' Six-axis NC is Most Sophisticated, Metalworking Production,
  51. (1983). New International Developments for Flexible Automation in FMS,
  52. (1983). Official: FMS was Invented in UK,
  53. (1986). OPT - Production Control with a Difference, Production Engineer, doi
  54. (1980). Optimal Operating Rules for Automated Manufacturing Systems, doi
  55. (1984). Over 30 FMS Projects 'In Hand' doi
  56. (1982). Production Decision Support Systems for Computerized Manufacturing Systems, doi
  57. (1978). Quantitative Design Tools for Computerized Manufacturing Systems,
  58. (1976). Real World Simulation of Diesel Lines, Automotive Industries,
  59. (1982). Reinventing the Tool (1954-1971),
  60. (1982). Report to the Department of Industry,
  61. (1981). Research Report 81/70/22,
  62. (1965). Review of Simulation Languages, doi
  63. (1985). Sched/Sim: An On-Line Shop Floor Scheduling and Control System,
  64. (1984). Simulation and Computer-Aided Planning of FMS,
  65. (1982). Simulation and Graphical Animation of Advanced Manufacturing Systems, doi
  66. (1987). Simulation Case Studies for Manufacturing Systems,
  67. (1982). Simulation Languages: A Review and Contextual Evaluation,
  68. (1982). Simulation Modeling and Analysis, doi
  69. (1983). Simulation Modelling and Analysis with Insight, Regenstrief Institute for Health Care,
  70. (1975). Simulation of Advanced Manufacturing Systems, doi
  71. (1982). Simulation of Industrial Systems Course Notes, Lucas Institute for Engineering Production,
  72. (1982). Simulation of Manual and Robot Assembly Line Operations,
  73. (1985). Simulation Programs for FMS Design,
  74. (1975). Some Practical Aspects of the Verification and Validation of Simulation Models, doi
  75. (1983). Specification of Generalized Modules that Must be Implemented to Simulate Flexible Manufacturing Systems,
  76. (1984). The Application of Program Generator Software and Its Extension to Discrete Event Simulation Modelling, doi
  77. (1981). The CMS Loading Problem, The Optimal Planning of Computerized Manufacturing Systems NSF Grant No.
  78. (1982). The FMS Report,
  79. (1974). The GASP IV Simulation Language, doi
  80. (1985). The Goal, Creative Output,
  81. (1984). The Optimality of Unbalancing both Workloads and Machine Group Sizes in Closed Network Queuing Networks of Multi-Server Queues, Working Paper 322-b, doi
  82. (1983). The Use of Simulation Modelling as a Design Tool for FMS,
  83. (1982). The Year of the FMS, doi
  84. (1981). Trecker Corporation, Solutions for Your Manufacturing Problems,
  85. (1985). Validation of a Modern FMS Simulator,

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