Task-service matching problem for platform-driven manufacturing-as-a-service: A one-leader and multi-follower Stackelberg game with multiple objectives
Wenchong Chen , Pengwei Feng , Xinggang Luo , Libing Nie
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引用次数: 0
Abstract
Along with the increased use of digitization, platform-driven manufacturing-as-a-service (p-MaaS) is becoming an inevitable trend of the manufacturing industry. End-users openly share their personalized manufacturing tasks, which necessitates platform-based crowdsourcing to conduct manufacturing service collaboration and at last achieve efficient task-service matching (TSM). This crowdsourcing takes into account the autonomy of end-users, platforms, and manufacturing servicers, which challenges previous opinions that distributed manufacturing services must be centralized and controlled by platforms. This paper proposes a novel TSM problem for p-MaaS under the framework of crowdsourcing. The platform plays the role of allocating new emerged tasks and broadcasting to corresponding servicers. All servicers receive the broadcast information and conduct scheduling-based task acceptance (STA) independently. The above manufacturing task allocation (MTA) focuses on maximizing the net revenue of TSM and at the same time enables servicers to accept tasks as many as possible. In terms of the inherent interactive mechanism between MTA and STA, in which MTA generates a decision space for STA and STA feeds task acceptance schemes and the corresponding fulfillment costs back for use in MTA decision-making, a bilevel multi-objective optimization (BMO) is formulated to simultaneously address the two subproblems based on a Stackelberg game. The BMO is a type of multi-objective nonlinear programming, and a nested algorithm is designed to solve it. The better performance of the BMO is verified through a practical case study.
随着数字化应用的增加,平台驱动的制造即服务(p-MaaS)正成为制造业发展的必然趋势。终端用户公开分享他们的个性化制造任务,这就需要基于平台的众包来开展制造服务协作,最终实现高效的任务服务匹配(TSM)。这种众包考虑到了终端用户、平台和制造服务商的自主性,对以往认为分布式制造服务必须由平台集中控制的观点提出了挑战。本文提出了众包框架下 p-MaaS 的新型 TSM 问题。平台的作用是分配新出现的任务并广播给相应的服务商。所有服务商收到广播信息后,独立进行基于调度的任务验收(STA)。上述制造任务分配(MTA)的重点是实现 TSM 净收入的最大化,同时使服务商尽可能多地接受任务。根据 MTA 和 STA 之间固有的互动机制,即 MTA 为 STA 生成决策空间,STA 将任务接受方案和相应的履行成本反馈给 MTA 决策使用,制定了双层多目标优化(BMO)来同时解决这两个基于 Stackelberg 博弈的子问题。BMO 是一种多目标非线性编程,设计了一种嵌套算法来解决它。通过实际案例研究验证了 BMO 的较佳性能。
期刊介绍:
Omega reports on developments in management, including the latest research results and applications. Original contributions and review articles describe the state of the art in specific fields or functions of management, while there are shorter critical assessments of particular management techniques. Other features of the journal are the "Memoranda" section for short communications and "Feedback", a correspondence column. Omega is both stimulating reading and an important source for practising managers, specialists in management services, operational research workers and management scientists, management consultants, academics, students and research personnel throughout the world. The material published is of high quality and relevance, written in a manner which makes it accessible to all of this wide-ranging readership. Preference will be given to papers with implications to the practice of management. Submissions of purely theoretical papers are discouraged. The review of material for publication in the journal reflects this aim.