Fuzzy multi-objective build-or-buy approach for component selection of fault tolerant software system under consensus recovery block scheme with mandatory redundancy in critical modules

S. Bali, P. Jha, U. Kumar, H. Pham
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引用次数: 10

Abstract

During the last two decades, there has been a growing interest in component-based software engineering CBSE both in academia and industry. In component-based system development, it is common to identify software modules first. Once they are identified, we need to select appropriate software components for each module. These components can either be bought as commercial off-the-shelf COTS components and probably adapted to work in the software system or can be developed in-house. This is a 'build-or-buy' decision. This paper discusses a framework that helps a developer to decide whether to buy or to build software components while designing a fault-tolerant modular software system. This paper proposes optimisation models for optimal component selection for a fault-tolerant modular software system under the consensus recovery block scheme. It is necessary to identify critical modules in the design of a fault-tolerant modular software system and also to develop a system with a built in redundancy for critical modules. Therefore, the first optimisation model is developed for optimal component selection with the dual objective of reliability maximisation and cost minimisation of the overall system under the constraints on the delivery time and criticality of modules. The second optimisation model is an extension of the first optimisation model and discusses the issue of compatibility of components of modules. In practice, it is not possible for management to obtain precise value of reliability, cost, delivery time, etc., therefore both the models are formulated as fuzzy multi-objective optimisation models. A case study of developing a manufacturing system for medium-size enterprise is used to illustrate the proposed methodology.
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关键模块强制冗余共识恢复块方案下容错软件系统组件选择的模糊多目标“建或买”方法
在过去的二十年中,学术界和工业界对基于组件的软件工程CBSE的兴趣日益浓厚。在基于组件的系统开发中,通常首先识别软件模块。一旦确定了它们,我们就需要为每个模块选择合适的软件组件。这些组件可以作为商业现成的COTS组件购买,并可能适应软件系统的工作,或者可以在内部开发。这是一个“建造或购买”的决定。本文讨论了一个框架,该框架可以帮助开发人员在设计容错模块化软件系统时决定是否购买或构建软件组件。提出了共识恢复块方案下容错模块化软件系统最优组件选择的优化模型。在容错模块化软件系统的设计中,需要识别关键模块,并为关键模块开发一个内置冗余的系统。因此,在模块交付时间和临界性的约束下,以整个系统的可靠性最大化和成本最小化为双重目标,建立了第一个优化模型。第二个优化模型是第一个优化模型的扩展,并讨论了模块组件的兼容性问题。在实际应用中,管理部门不可能获得可靠性、成本、交货期等的精确值,因此这两种模型都被表述为模糊多目标优化模型。本文以中型企业制造系统开发为例,对所提出的方法进行了说明。
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