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Original Articles

A simulation study of multiple-load-carrying automated guided vehicles in a flexible manufacturing system

Pages 1353-1366 | Received 01 Jul 1987, Published online: 07 May 2007

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Madjid Tavana, Hamed Fazlollahtabar & Reza Hassanzadeh. (2014) A bi-objective stochastic programming model for optimising automated material handling systems with reliability considerations. International Journal of Production Research 52:19, pages 5597-5610.
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Ying-Mei Tu, Chun-Wei Lu$suffix/text()$suffix/text() & Amy H.I. Lee. (2013) AMHS capacity determination model for wafer fabrication based on production performance optimization. International Journal of Production Research 51:18, pages 5520-5535.
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Ci Chen, Li-feng Xi, Bing-hai Zhou & Shen-shen Zhou. (2011) A multiple-criteria real-time scheduling approach for multiple-load carriers subject to LIFO loading constraints. International Journal of Production Research 49:16, pages 4787-4806.
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Shabnam Rezapour, Reza Zanjirani-Farahani & Elnaz Miandoabchi. (2011) A machine-to-loop assignment and layout design methodology for tandem AGV systems with single-load vehicles. International Journal of Production Research 49:12, pages 3605-3633.
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Y.-C. Ho & S.-H. Chien. (2006) A simulation study on the performance of task-determination rules and delivery-dispatching rules for multiple-load AGVs. International Journal of Production Research 44:20, pages 4193-4222.
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Jim Lee & Teerachat Srisawat. (2006) Effect of manufacturing system constructs on pick-up and drop-off strategies of multiple-load AGVs. International Journal of Production Research 44:4, pages 653-673.
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Ying-Chin Ho & Ping-Fong Hsieh. (2004) A machine-to-loop assignment and layout design methodology for tandem AGV systems with multiple-load vehicles. International Journal of Production Research 42:4, pages 801-832.
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Ying-Chin Ho & Fong-Chan Wu. (2002) A BIDDING-BASED CONTROL STRATEGY FOR MULTIPLE-LOAD AUTOMATED GUIDED VEHICLES. Journal of the Chinese Institute of Industrial Engineers 19:4, pages 82-94.
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David Sinriech & Julia Kotlarski. (2002) A dynamic scheduling algorithm for a multiple-load multiple-carrier system. International Journal of Production Research 40:5, pages 1065-1080.
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B. E. Farling, C. T. Mosier & F. Mahmoodi. (2001) Analysis of automated guided vehicle configurations in flexible manufacturing systems. International Journal of Production Research 39:18, pages 4239-4260.
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DAVID SINRIECH & LIRON PALNI. (1998) Scheduling pickup and deliveries in a multiple-load discrete carrier environment. IIE Transactions 30:11, pages 1035-1047.
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J. LEE, M. TANGJARUKIJ & Z. ZHU. (1996) Load selection of automated guided vehicles in flexible manufacturing systems. International Journal of Production Research 34:12, pages 3383-3400.
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X.-C. SUN & N. TCHERNEV. (1996) Impact of empty vehicle flow on optimal flow path design for unidirectional AGV systems. International Journal of Production Research 34:10, pages 2827-2852.
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C. J. MALMBORG. (1994) A heuristic model for simultaneous storage space allocation and block layout planning. International Journal of Production Research 32:3, pages 517-530.
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K. RAVI RAJU & O. V. KRISHNAIAH CHETTY. (1993) Design and evaluation of automated guided vehicle systems for flexible manufacturing systems: an extended timed Petri net-based approach. International Journal of Production Research 31:5, pages 1069-1096.
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CHIH-MING LIU & SHYH-HAI DUH. (1992) Study of AGVS design and dispatching rules by analytical and simulation methods. International Journal of Computer Integrated Manufacturing 5:4-5, pages 290-299.
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D. SINRIECH & J. M. A. TANCHOCO. (1992) An economic model for determining AGV fleet size. International Journal of Production Research 30:6, pages 1255-1268.
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LUISG. OCCEN˜A & TOSHIYA YOKOTA. (1991) Modelling of an automated guided vehicle system (AG VS) in a just-in-time (JIT) environment. International Journal of Production Research 29:3, pages 495-511.
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CHARLESJ. MALMBORG. (1990) A model for the design of zone control automated guided vehicle systems. International Journal of Production Research 28:10, pages 1741-1758.
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B. MAHADEVAN & T. T. NARENDRAN. (1990) Design of an automated guided vehicle-based material handling system for a flexible manufacturing system. International Journal of Production Research 28:9, pages 1611-1622.
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R. Yan, S.J. Dunnett & L.M. Jackson. (2022) Model-Based Research for Aiding Decision-Making During the Design and Operation of Multi-Load Automated Guided Vehicle Systems. Reliability Engineering & System Safety 219, pages 108264.
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Surinder Kumar & Rajesh Attri. (2020) Prioritization of Variables Affecting the Effectiveness of Material Handling System. IOP Conference Series: Materials Science and Engineering 804:1, pages 012031.
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Puneeth Valmiki, Abhinav Simha Reddy, Gowtham Panchakarla, Kranthi Kumar, Rajesh Purohit & Amit Suhane. (2018) A Study on Simulation Methods for AGV Fleet Size Estimation in a Flexible Manufacturing System. Materials Today: Proceedings 5:2, pages 3994-3999.
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Grzegorz Kłosowski, Arkadiusz Gola & Thibbotuwawa Amila. (2018) Computational Intelligence in Control of AGV Multimodal Systems. IFAC-PapersOnLine 51:11, pages 1421-1427.
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Maojia P. Li & Michael E. Kuhl. (2017) Design and simulation analysis of PDER: A multiple-load automated guided vehicle dispatching algorithm. Design and simulation analysis of PDER: A multiple-load automated guided vehicle dispatching algorithm.
Ci Chen, Beixin Xia, Bing-hai Zhou & Lifeng Xi. (2013) A reinforcement learning based approach for a multiple-load carrier scheduling problem. Journal of Intelligent Manufacturing 26:6, pages 1233-1245.
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Hamed Fazlollahtabar & Mohammad Saidi-MehrabadHamed Fazlollahtabar & Mohammad Saidi-Mehrabad. 2015. Autonomous Guided Vehicles. Autonomous Guided Vehicles 41 56 .
Ying-Chin Ho, Hao-Cheng Liu & Yuehwern Yih. (2012) A multiple-attribute method for concurrently solving the pickup-dispatching problem and the load-selection problem of multiple-load AGVs. Journal of Manufacturing Systems 31:3, pages 288-300.
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Dae-Eun Lim & 서민석. (2011) Development of indices and Analysis of Productive Effectiveness for AGV with Multi-Load Capacity. Productivity Review 25:4, pages 133-154.
Crossref
O. Morandin, V. F. Carida, E. R. R. Kato & M. A. S. Fonseca. (2011) A hierarchical fuzzy rule-based building model applied to a AGV dispatching system in an FMS. A hierarchical fuzzy rule-based building model applied to a AGV dispatching system in an FMS.
Satoshi Hoshino, Hiroya Seki, Yuji Naka & Jun Ota. (2010) Multirobot Coordination for Flexible Batch Manufacturing Systems Experiencing Bottlenecks. IEEE Transactions on Automation Science and Engineering 7:4, pages 887-901.
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Hamid Reza Sayarshad. (2009) Using bees algorithm for material handling equipment planning in manufacturing systems. The International Journal of Advanced Manufacturing Technology 48:9-12, pages 1009-1018.
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Parham Azimi, Hasan Haleh & Mehran Alidoost. (2010) The Selection of the Best Control Rule for a Multiple-Load AGV System Using Simulation and Fuzzy MADM in a Flexible Manufacturing System. Modelling and Simulation in Engineering 2010, pages 1-11.
Crossref
Jeffrey S. Smith, Erdal Sahin & Levent Yilmaz. 2009. Agent‐Directed Simulation and Systems Engineering. Agent‐Directed Simulation and Systems Engineering 451 473 .
Dhamodharan Raman, Sev V. Nagalingam, Bruce W. Gurd & Grier C.I. Lin. (2009) Quantity of material handling equipment—A queuing theory based approach. Robotics and Computer-Integrated Manufacturing 25:2, pages 348-357.
Crossref
Ying-Chin Ho & Hao-Cheng Liu. (2009) The performance of load-selection rules and pickup-dispatching rules for multiple-load AGVs. Journal of Manufacturing Systems 28:1, pages 1-10.
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Saadettin Erhan Kesen & Ömer Faruk Baykoç. (2007) Simulation of automated guided vehicle (AGV) systems based on just-in-time (JIT) philosophy in a job-shop environment. Simulation Modelling Practice and Theory 15:3, pages 272-284.
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Tilak Raj, Ravi Shankar & Mohammed Suhaib. (2007) A review of some issues and identification of some barriers in the implementation of FMS. International Journal of Flexible Manufacturing Systems 19:1, pages 1-40.
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Ying-Chin Ho & Hao-Cheng Liu. (2006) A simulation study on the performance of pickup-dispatching rules for multiple-load AGVs. Computers & Industrial Engineering 51:3, pages 445-463.
Crossref
Morandin Orides, Castro, Pablo A. Dalbem, R. R. Kato Edilson & A Camargo Heloisa. (2006) A Genetic Fuzzy System for Defining a Reactive Dispatching Rule for AGVs. A Genetic Fuzzy System for Defining a Reactive Dispatching Rule for AGVs.
Iris F.A. Vis. (2006) Survey of research in the design and control of automated guided vehicle systems. European Journal of Operational Research 170:3, pages 677-709.
Crossref
Pyung-Hoi Koo, Jaejin Jang & Jungdae Suh. (2004) Estimation of Part Waiting Time and Fleet Sizing in AGV Systems. International Journal of Flexible Manufacturing Systems 16:3, pages 211-228.
Crossref
G. Levitin & R. Abezgaouz. (2003) Optimal routing of multiple-load AGV subject to LIFO loading constraints. Computers & Operations Research 30:3, pages 397-410.
Crossref
Jeffrey S. Smith. (2003) Survey on the use of simulation for manufacturing system design and operation. Journal of Manufacturing Systems 22:2, pages 157-171.
Crossref
Ignacio Castillo, Sergio A. Reyes & Brett A. Peters. (2001) Modeling and analysis of tandem AGV systems using generalized stochastic Petri nets. Journal of Manufacturing Systems 20:4, pages 236-249.
Crossref
Masaru NakanoKatsuhisa Ohno. (2000) AN INTEGRATED ANALYTICAL/SIMULATION APPROACH FOR ECONOMIC DESIGN OF AN AGV SYSTEM. Journal of the Operations Research Society of Japan 43:3, pages 382-395.
Crossref
J. Robert van der Meer & René de Koster. 1999. New Trends in Distribution Logistics. New Trends in Distribution Logistics 197 214 .
B. M. Beamon & A. N. Deshpande. (1998) A mathematical programming approach to simultaneous unit-load and fleet-size optimisation in material handling systems design. The International Journal of Advanced Manufacturing Technology 14:11, pages 858-863.
Crossref
Benita M. Beamon & Victoria C. P. Chen. (1998) Performability-based fleet sizing in a material handling system. The International Journal of Advanced Manufacturing Technology 14:6, pages 441-449.
Crossref
James H. Bookbinder & Michael D. Kirk. (1997) Lane selection in an AGV-based asynchronous parallel assembly line. Computers & Industrial Engineering 32:4, pages 927-938.
Crossref
Ümit Bilge & J.M.A. Tanchoco. (1997) AGV systems with multi-load carriers: Basic issues and potential benefits. Journal of Manufacturing Systems 16:3, pages 159-174.
Crossref
Edward A. Ross, Farzad Mahmoodi & Charles T. Mosier. (2007) Tandem Configuration Automated Guided Vehicle Systems: A Comparative Study*. Decision Sciences 27:1, pages 81-102.
Crossref
B. Gopalakrishnan, S. Chintala, S. Adhikari & G. Bhaskaran. 1996. Design for X. Design for X 230 244 .
Ronald J. Mantel & Henri R.A. Landeweerd. (1995) Design and operational control of an AGV system. International Journal of Production Economics 41:1-3, pages 257-266.
Crossref
David Sinriech. (1995) Network design models for discrete material flow systems: A literature review. The International Journal of Advanced Manufacturing Technology 10:4, pages 277-291.
Crossref
A. Gunasekaran, T. Martikainen & P. Yli-Olli. 1995. Flexible Manufacturing Systems: Recent Developments - Reference for Modern Instrumentation, Techniques, and Technology. Flexible Manufacturing Systems: Recent Developments - Reference for Modern Instrumentation, Techniques, and Technology 3 44 .
Mehdi Kaighobadi & Kurapati Venkatesh. (1994) Flexible Manufacturing Systems: An Overview. International Journal of Operations & Production Management 14:4, pages 26-49.
Crossref
C. J. Malmborg. 1994. Material Flow Systems in Manufacturing. Material Flow Systems in Manufacturing 138 156 .
J. M. A. Tanchoco & C. G. Co. 1994. Material Flow Systems in Manufacturing. Material Flow Systems in Manufacturing 300 331 .
Pranab Nayyar & Suresh K. Khator. (1993) Operational control of multi-load vehicles in an automated guided vehicle system. Computers & Industrial Engineering 25:1-4, pages 503-506.
Crossref
K. Ravi Raju & O.V. Krishnaiah Chetty. (1993) Addressing design and control issues of AGV-based FMSs with Petri net aided simulation. Computer Integrated Manufacturing Systems 6:2, pages 125-134.
Crossref
A. Gunasekaran, T. Martikainen & P. Yli-Olli. (1993) Flexible manufacturing systems: An investigation for research and applications. European Journal of Operational Research 66:1, pages 1-26.
Crossref
Luis G. Occena & Toshiya Yokota. (1993) Analysis of the AGV loading capacity in a JIT environment. Journal of Manufacturing Systems 12:1, pages 24-35.
Crossref
Charles J. Malmborg. (1992) A decision support system for automated guided vehicle system design. Applied Mathematical Modelling 16:4, pages 170-180.
Crossref
C.J. Malmborg & L.M. Berrings. (1992) A decision support system for the design of batch manufacturing system. A decision support system for the design of batch manufacturing system.
R.G. Kasilingam. (1991) Mathematical modeling of the AGVS capacity requirements planning problem. Engineering Costs and Production Economics 21:2, pages 171-175.
Crossref
Mufit H. Ozden. (2016) Graphical programming of simulation models in an object-oriented environment. SIMULATION 56:2, pages 104-116.
Crossref
Christine G. Co & J.M.A. Tanchoco. (1991) A review of research on AGVS vehicle management. Engineering Costs and Production Economics 21:1, pages 35-42.
Crossref
Robert J. Graves, Mickey R. Wilhelm, Leon F. McGinnis & Richard E. WardCharles J. Malmborg. 1991. Material Handling ’90. Material Handling ’90 559 580 .
C. G. Co & Jose Tanchoco. 1991. Modern Production Concepts. Modern Production Concepts 631 643 .
O.M. Ulgen & P. Kedia. (1990) Using simulation in design of a cellular assembly plant with automatic guided vehicles. Using simulation in design of a cellular assembly plant with automatic guided vehicles.
G. -C. Vosniakos & B. J. Davies. (1989) On the path layout and operation of an AGV system serving an FMS. The International Journal of Advanced Manufacturing Technology 4:3, pages 243-262.
Crossref

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