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npx versuz@latest install hiyenwong-ai-collection-collection-skills-automated-cps-testinggit clone https://github.com/hiyenwong/ai_collection.gitcp ai_collection/SKILL.MD ~/.claude/skills/hiyenwong-ai-collection-collection-skills-automated-cps-testing/SKILL.md--- name: automated-cps-testing description: "Automated CPS Testing Framework - Automated continuous testing framework combining SIL simulation, HIL simulation, and actual robotic platform testing... Activation: CPS testing, cyber-physical systems, robotic testing." version: v1.0.0 last_updated: 2026-04-14 source: arXiv:2604.11708v1 --- # Automated CPS Testing Framework ## Overview **Source Paper:** [ACT: Automated CPS Testing for Open-Source Robotic Platforms](https://arxiv.org/abs/2604.11708v1) **Authors:** Aditya A. Krishnan, Donghoon Kim, Hokeun Kim **Published:** 2026-04-13 | **Category:** cs.SE ## Description Automated continuous testing framework combining SIL simulation, HIL simulation, and actual robotic platform testing ## Core Concepts - software-in-the-loop - hardware-in-the-loop - continuous integration - robotic platform testing - open-source CPS ## Activation Keywords - CPS testing - cyber-physical systems - robotic testing - continuous testing - SIL/HIL simulation - ROS testing - 自动化CPS测试 ## Methodology ### Problem Statement Open-source software for cyber-physical systems (CPS) often lacks robust testing involving robotic platforms, resulting in critical errors that remain undetected. ### Key Contributions 1. **Software-In-The-Loop**: Implements software-in-the-loop to achieve systematic optimization 2. **Hardware-In-The-Loop**: Leverages hardware-in-the-loop for efficient execution 3. **Continuous Integration**: Utilizes continuous integration for enhanced performance ## Implementation Workflow ### Step 1: Problem Formulation - Define the system objectives and constraints - Identify key performance indicators - Establish evaluation metrics ### Step 2: Framework Setup - Configure the software-in-the-loop components - Initialize hardware-in-the-loop parameters - Set up monitoring and telemetry ### Step 3: Execution - Run the optimization loop - Collect performance data - Iterate based on feedback ### Step 4: Validation - Verify solution quality - Compare against baselines - Document lessons learned ## Applications - Systems engineering projects - Distributed system optimization - Autonomous system validation - Multi-agent coordination ## References - **Paper:** https://arxiv.org/abs/2604.11708v1 - **PDF:** https://arxiv.org/pdf/2604.11708v1 - **Authors:** Aditya A. Krishnan, Donghoon Kim, Hokeun Kim ## Tags systems engineering, cs.SE, software-in-the-loop, hardware-in-the-loop, continuous integration, robotic platform testing, open-source CPS