Design and application of task administration protocols for collaborative production and service systems

Design and application of task administration protocols for collaborative production and service systems

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Article ID: iaor201110575
Volume: 135
Issue: 1
Start Page Number: 177
End Page Number: 189
Publication Date: Jan 2012
Journal: International Journal of Production Economics
Authors: ,
Keywords: systems, engineering, management
Abstract:

This research investigates the design of Task Administration Protocols (TAPs) for effective task allocation and administration in collaborative production/service systems. Customer‐focused and concurrent engineering service systems process tasks more effectively as a result of the power of collaboration among multiple participants. In such environments, however, complex situations might arise that require decisions that cannot be handled by simple Coordination Protocols (CPs). To design an effective control mechanism to manage complex situations, this research identifies basic problems in collaborative task administration and proposes the design framework of protocols to solve the problems. In the framework, TAPs consist of three component‐protocols: (1) Task Requirement Analysis Protocol, (2) Shared Resource Allocation Protocol, and (3) Synchronization and Time‐Out Protocol. Each component protocol is activated to address priority‐based allocation, resource‐aware allocation, and task re‐allocation at a different task administration context, ranging from task initialization, task allocation, to task monitoring, respectively. To analyze feasibility and effectiveness of the proposed design, TAPs are applied to two collaborative production/service systems. Simulations are conducted to evaluate the performance achieved by different TAPs and non‐TAP CPs under various load conditions. The results show that there is a significant performance improvement by TAPs over CPs in most cases, e.g., 84% vs. 64% in terms of task completion ratio. The advantage of TAPs can be explained by their design with relatively higher level of collaborative intelligence, addressing more complex control logic than non‐TAP CPs.

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