Model‐Based Framework for Data and Knowledge‐Driven Systems Architecting Demonstrated on a Hydrogen‐Powered Concept Aircraft

Author:

Kuelper Nils,Bielsky Thimo,Broehan Jasmin,Thielecke Frank

Abstract

ABSTRACTAircraft development is a protracted process over many years. Novel concept aircraft with new energy sources and disruptive systems technologies are investigated during the aircraft conceptual design phase with the goal to achieve sustainable aviation. Current development cycles need to be accelerated to reduce time to market and development costs of novel aircraft, while still handling complexity and uncertainty of systems technologies. Therefore, a holistic framework for knowledgebased systems architecting using a model‐based systems engineering approach is presented. This framework has the purpose to conserve and provide knowledge, that is, information, data, and experiences about existing systems architectures, to the engineer. The developed framework consists of a database concept, a method for model‐based systems architecting, and an interface to the overall systems design software tool GeneSys. Based on evaluating different modeling languages and tools, MathWorks System Composer is selected as most suitable tool for knowledge‐based systems architecting. The developed framework is then demonstrated by conserving and reusing formalized knowledge for the design of a novel hydrogen‐powered concept aircraft. On‐board systems architecture models are saved in a database and automatically recreated reducing development time. The complete graphical representation could not yet be stored in a formalized manner partly reducing the advantage of a clear representation of model‐based systems architecting. However, this did not reduce automatic recreation and evaluation capabilities.

Publisher

Wiley

Reference45 articles.

1. Air Transport Action Group.2021. “Waypoint 2050: Balancing Growth in Connectivity with a Comprehensive Global Air Transport Response to the Climate Emergency: Vision of Net-Zero Aviation by Mid-Century.”

2. Annighoefer B.2019. “An Open Source Domain-Specific Avionics System Architecture Model for the Design Phase and Self-Organizing Avionics.” SAE Technical Paper Series.

3. Bielsky T. M.Juenemann andF.Thielecke.2021. “Parametric Modeling of the Aircraft Electrical Supply System for Overall Conceptual Systems Design.”German Aerospace Congress Bremen DE.

4. Bielsky T. N.Kuelper andF.Thielecke.2023.Assessment of an Auto-Routing Method for Topology Generation of Aircraft Power Supply Systems [Manuscript submitted for publication].

5. Bonnet S. J. -L.Voirin D.Exertier andV.Normand.2016. “Not (Strictly) Relying on SysML for MBSE: Language Tooling and Development Perspectives: The Arcadia/Capella Rationale' 2016 Annual IEEE Systems Conference (SysCon) Orlando US-FL 18-21 April.

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