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システム工学arXiv:2606.06727v1

IDDMBSE:データ駆動型とモデルベースのシステム工学を統合した自律サイバー物理システムの信頼性確保手法

IDDMBSE: Integrating Data-Driven and Model-Based Systems Engineering for Trusted Autonomous Cyber-Physical Systems

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モデルベースシステム工学(MBSE)とデータ駆動型ML/AIを統合する新しいシステム工学手法IDDMBSEを提案し、SysMLベースのツールチェーン(PERFECT、TRADES-X、VERITAS)を実装して自律地上ロボットの開発ライフサイクル全体で実証した。

著者: John S. Baras, Sai Sandeep Damera, Ryan Matheu, Clinton Enwerem, Praveen M. S. Kumar

分類: cs.RO, eess.SY

原文アブストラクト

Autonomous cyber-physical systems (CPS) sit at the intersection of Model-Based Systems Engineering (MBSE) and data-driven Machine Learning and Artificial Intelligence (ML/AI), yet no integrated Systems Engineering (SE) methodology natively spans both. We address this gap with IDDMBSE, an Integrated Data-Driven and Model-Based Systems Engineering methodology that extends the rigorous MBSE V-process with a data-driven loop at every step, anchored in SysML, the autonomy stack, and a hybrid model-based plus data-driven trade-off architecture. We instantiate IDDMBSE as an interoperable, open-source tool chain: PERFECT, which maps SysML system architectures to executable ROS autonomy stacks for scalable performance evaluation; TRADES-X, which decomposes design-space exploration into a model-based optimization stage followed by a data-driven evaluation stage; and VERITAS, which combines formal, data-driven, and runtime verification into a single assurance workflow. We demonstrate IDDMBSE on a Trusted Autonomous Ground Robot across its development lifecycle, spanning sensor-suite selection, risk-sensitive path planning, behavior-tree task verification, conformal-prediction-based robust perception, and assured multi-robot coordination, all exercised in a contested-terrain Isaac Sim test range that we release with the tool chain. We close by sketching how IDDMBSE is being re-formulated on SysML v2 / KerML foundations to enable language-native composability and tighter ML/AI integration.