scholarly journals Service-driven approach to life-cycle dynamic evolutionary update of modular product structure

2020 ◽  
Vol 2 (3) ◽  
pp. 142-149
Author(s):  
Lei Zhou ◽  
Pinglu Chen ◽  
Jing Xu ◽  
Wenting Qiu ◽  
Muhua Liu
Author(s):  
David W. Rosen

Abstract A product’s architecture affects the ability of a company to customize, assemble, service, and recycle the product. Much of the flexibility to address these issues is locked into the product’s design during the configuration design stage when the architecture is determined. The concepts of modules and modularity are central to the description of an architecture, where a module is a set of components that share some characteristic. Modularity is a measure of the correspondence between the modules of a product from different viewpoints, such as functionality and physical structure. The purpose of this paper is to investigate formal foundations for configuration design. Since product architectures are discrete structures, discrete mathematics, including set theory and combinatorics, is used for the investigation. A Product Module Reasoning System (PMRS) is developed to reason about sets of product architectures, to translate design requirements into constraints on these sets, to compare architecture modules from different viewpoints, and to directly enumerate all feasible modules without generate-and-test or heuristic search approaches. The PMRS is described mathematically and applied to the design of architectures for a hand-held tape recorder. Life cycle requirements are used as design criteria.


Author(s):  
Kevin R. Allen ◽  
Susan Carlson-Skalak

Abstract Product architecture can have a significant impact on a product’s life-cycle and its development time. Modular product architecture allows for easy disassembly upon product retirement and allows for wide product variety. In a small company, the team structure of the company can correspond to the modules, and modules can be used across product lines. By using similar modules from one generation to the next, product development time can be reduced. The methodology described in this paper gives a small company the framework from which to develop modular products.


2012 ◽  
Vol 16 (02) ◽  
pp. 1250010 ◽  
Author(s):  
MAXIMILIAN HANS PASCHE ◽  
MAGNUS PERSSON

Facing constantly increasing product variety and changing customer demands, many companies have adopted a product modularisation strategy to increase strategic flexibility. Despite the dominant view that product modularisation directly increases strategic flexibility, it is argued here that the causal link between product modularisation and strategic flexibility is mediated by specific complementary organisational factors which enable firms with a modular product structure to develop strategic flexibility. Moreover, the interrelationship between product architecture and organisational structure is regarded as reciprocal. That is, product architecture and organisational structure are considered to co-evolve and mutually influence each other. The purpose of this paper is to elucidate how firms applying a modularisation strategy organise in order to increase the strategic flexibility, and how the organisational structure is interrelated with the product architecture, especially the ability to maintain a modular product architecture over time. Two International automotive companies, both of them implemented a modularisation strategy in the mid-1990s, have been studied. From the cases it can be concluded that the alignment of product and organisational architecture, decision-making structures, and the management of knowledge affect a firm's ability to evolve its products and maintain a modular product structure over time.


2019 ◽  
Vol 142 (4) ◽  
Author(s):  
Jennifer Hackl ◽  
Dieter Krause ◽  
Kevin Otto ◽  
Marc Windheim ◽  
Seung Ki Moon ◽  
...  

Abstract Research in modularization of product families reveals numerous individual cause and effect impacts of modularity on a firm. There are clearly many interrelated positive and negative economic impacts arising from different activities of the firm impacted by the modular product structures. This makes the construction of an economic business case for modularity difficult, where often the benefits are reduced indirect costs. This paper presents a literature-based network model of how modular product structures affect firm’s economics across the design-to-manufacturing life cycle phases. It shows how (1) changes on modularity properties may lead to (2) different effects within the product’s life cycle phases that (3) have an economic impact on the firm. For instance, modularization can prolong development time of a platform, while shortening the subsequent development times of product variants and lowering manufacturing costs. To validate the proposed model, the given effect chains were compared by industrial experts against nine case study modularization projects by marking effects that were experienced and observed in their projects. The results first revealed that in design, an increase of commonality drove component reuse leading to lower development costs per unit. Second, in procurement, it was found that increased modularity caused better predictability, less purchasing orders, and better purchasing conditions that ultimately lead to lower costs. Third, in production, it was found that a smaller variety of components allowed less process variety, leading to fewer and more optimized processes and therefore lower production costs. We present these cause and effect impacts of modularity as drivers for quantifying the economic impact of modularity.


2013 ◽  
Vol 572 ◽  
pp. 20-23 ◽  
Author(s):  
Jonathan Sze Choong Low ◽  
Wen Feng Lu ◽  
Bin Song

To ensure that the economic and environmental impact over the entire product life cycle is taken into consideration during the design process, an integrated life cycle approach to Design for Environment (DfE) must be taken. In this paper, we describe the application of the product structure-based methodology for integrated life cycle analysis as a DfE decision-support tool. While maintaining an integrated perspective of the product life cycle, this methodology modularises the product life cycle model to the individual parts of the product structure; thus, allowing product designers to analyse the parts independently from the rest of the product system and enabling them to systematically evaluate the design alternatives. Using a case study on a dive torchlight, we demonstrate how through our proposed methodology, design alternatives for the product can be evaluated based on the life cycle eco-efficiency.


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