Integrated design methodology of a mechatronic system

Plateaux, Régis; Penas, Olivia; Choley, Jean-Yves; Mhenni, Faïda; Rivière, Alain

doi:10.1051/meca/2010052

Cited by 5 publications

(8 citation statements)

References 9 publications

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“…Similarly, Hehenberger positions his contribution within the V-model, exploring the model-based parametric design and discussing hierarchical models (Hehenberger 2015). Plateaux et al also focus on the downward part of the V-model, and make use of SADT and SysML for functional analysis (Plateaux et al 2010). Linked with functional breakdown and analysis, Derelöv et al (2008) propose to rely on an extension of Hubka-Eder's model from the theory of technical systems (Hubka and Eder 1988) to realize a functional modelling.…”

Section: V-model and Related Concepts And Techniquesmentioning

confidence: 99%

“…Step 5 illustrates the addition of functional breakdown and analysis, proposed by Habchi and Barthod (2016) and Plateaux et al (2010) and classified as a method. Moreover, both references expressly use functional breakdown and analysis to support the downward side of the V-model, resulting in a solid line between the V-model and functional breakdown and analysis.…”

Section: Exemplifying: Building the Cartography Incorporating Se And ...mentioning

confidence: 99%

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Organizing the fragmented landscape of multidisciplinary product development: a mapping of approaches, processes, methods and tools from the scientific literature

et al. 2022

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The fourth industrial revolution is shaping a new industrial landscape. A variety of technologies related to software, information and communication technologies embody a ubiquitous digital and connectivity era. These technologies enable the creation of new products with the integration of connectivity, data collection and processing capacities which require combining engineering disciplines. Increasing product multidisciplinarity compels companies to adapt their product development practices. The scientific literature offers a variety of concepts and techniques to support multidisciplinary product development. This paper seeks to organize the landscape of concepts and techniques available for multidisciplinary product development. An extensive literature review was conducted, and 236 concepts and techniques were identified. Multidisciplinary products of interest deal with both software and hardware development and can be encountered through the denominations of cyber-physical systems, mechatronics and smart products and systems. An in-depth analysis led to the classification and mapping, for each product denomination, of the concepts and techniques available to support their development. The classification relies on a four-level model paired with a decision tree to thoroughly sort the variety of concepts and techniques into the approach, process, method, and tool levels. The mapping between the sorted concepts and techniques enabled the generation of graphical representations called cartographies. These cartographies serve to support companies’ transformation towards the fourth industrial revolution from the product development perspective by giving a general overview of the related literature, and guiding them in the identification of the most suitable approaches, processes, methods and tools.

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Section: V-model and Related Concepts And Techniquesmentioning

confidence: 99%

Section: Exemplifying: Building the Cartography Incorporating Se And ...mentioning

confidence: 99%

Organizing the fragmented landscape of multidisciplinary product development: a mapping of approaches, processes, methods and tools from the scientific literature

et al. 2022

View full text Add to dashboard Cite

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“…In this context, as most product development costs are generally incurred at the end of the design phase, late changes to the architecture at the detailed design phase can result in a negative effect on product quality, cost and performance. As a result, some authors propose an integrated design approach for mechatronic systems to support designers during the conceptual design phase [2,3]. Then, the 3D architecture evaluation under the multi-physical constraints of such products, as of the conceptual design, becomes a crucial step requiring a multidisciplinary approach based on System Engineering (SE) in order to cope with all the previous considerations.…”

Section: Emc Issues In Mechatronic Systemsmentioning

confidence: 99%

Topological approach for assessment of electromagnetic interferences to support mechatronic conceptual design

Kharrat

Penas

Kharrat

et al. 2020

Mechanics & Industry

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The conceptual design is a crucial phase for the System Architects to evaluate 3D architecture concepts of mechatronic systems mainly with regard to the ElectroMagnetic Compatibility (EMC). Our research work deals with the combination of electromagnetic modeling and a topological approach to support the qualitative and quantitative ElectroMagnetic Interferences (EMI) evaluation process within the MBSE SAMOS approach as of the conceptual design. For a given interference, the analysis of topological models allows the qualitative identification of the existence of victims with their associated potential aggressors, based on the electrical schema of interacting components. Then, once the potential EMIs have been qualitatively identified, a quantitative evaluation can be performed based on the predefined electromagnetic and geometrical requirements, and on the analysis of the identified physical coupling law. Finally, this approach has been applied to the alien crosstalk occurring in an electrical vehicle powertrain, with a quantitative evaluation based on the two following methods: an analytical approach and Kron's approach.

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“…Both control systems development and mechanical systems development adopt the so-called ''V-approach'' [3,4,[19][20][21], propagating system-level requirements to component design and validating the system performance at increasing integration levels. As Fig.…”

Section: Engineering Challenges For Mechatronic Vehicle Systemsmentioning

confidence: 99%

Virtual engineering at work: the challenges for designing mechatronic products

Auweraer

Anthonis

Bruyne

et al. 2012

Engineering with Computers

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The product race has become an innovation race, reconciling challenges of branding, performance, time to market and competitive pricing while complying with ecological, safety and legislation constraints. The answer lies in ''smart'' products of high complexity, relying on heterogeneous technologies and involving active components. To keep pace with this evolution and further accelerate the design cycle, the design engineering process must be rethought. The paper presents a mechatronic simulation approach to achieve this goal. The starting point is the current virtual prototyping paradigm that is widely adopted and that continues to improve in terms of model complexity, accuracy, robustness and automated optimization. Two evolutions are discussed. A first one is the extension to multi-physics simulation answering the design needs of the inherent multi-disciplinarity of ''intelligent'' products. Integration of thermal, hydraulic, mechanical, haptic and electrical functions requires simulation to extend beyond the traditional CAD-FEM approach, supporting the use of system, functional and perception models. The second evolution is the integration of control functions in the products. Where current industrial practice treats mechanical system design and control design as different design loops, this paper discusses their integration in a modelbased design process at all design stages, turning concepts such as software-in-the-loop and hardware-in-the-loop into basic elements of an industrial design approach. These concepts are illustrated by a number of automotive design engineering cases, which demonstrate that the combined use of perception, geometric and system models allows to develop innovative solutions for the active safety, lowemission and high-comfort performance of next-generation vehicles. This process in turn poses new challenges to the design in terms of the specification and validation of such innovative products, including their failure modes and fault-tolerant behaviour. This will imply adopting a modelbased system engineering approach that is currently already common practice in software engineering.

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Integrated design methodology of a mechatronic system

Cited by 5 publications

References 9 publications

Organizing the fragmented landscape of multidisciplinary product development: a mapping of approaches, processes, methods and tools from the scientific literature

Organizing the fragmented landscape of multidisciplinary product development: a mapping of approaches, processes, methods and tools from the scientific literature

Topological approach for assessment of electromagnetic interferences to support mechatronic conceptual design

Virtual engineering at work: the challenges for designing mechatronic products

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