Infrastructure-based Autonomous Mobile Robots for Internal Logistics
This paper explores the use of infrastructure-based Autonomous Mobile Robots (AMRs) for internal logistics, highlighting key opportunities and challenges. It introduces a reference architecture combining infrastructure-based sensing, on-premise cloud computing, and onboard autonomy.
Why it matters
This research explores an underexplored approach to Autonomous Mobile Robots that leverages infrastructure, which could lead to more scalable and robust solutions for internal logistics in industrial environments.
Key Points
- 1Adoption of AMRs for internal logistics is accelerating, with most solutions emphasizing decentralized, onboard intelligence
- 2Infrastructure-based AMR systems, involving external sensors and computational resources, remain underexplored
- 3Reference architecture combines infrastructure-based sensing, on-premise cloud computing, and onboard autonomy
- 4Review of core technologies for localization, perception, and planning in infrastructure-based AMR systems
- 5Real-world deployment in heavy-vehicle manufacturing and user experience evaluation
Details
The paper presents a comprehensive overview of infrastructure-based Autonomous Mobile Robot (AMR) systems for internal logistics. While most current AMR solutions focus on decentralized, onboard intelligence, the authors argue that infrastructure-based systems, involving external sensors and computational resources, can provide additional opportunities and benefits. To support this, the paper introduces a reference architecture that combines infrastructure-based sensing, on-premise cloud computing, and onboard autonomy. The authors then review the core technologies for localization, perception, and planning in this infrastructure-based approach. They demonstrate the approach through a real-world deployment in a heavy-vehicle manufacturing environment and summarize findings from a user experience (UX) evaluation. The goal is to provide a holistic foundation for future development of scalable, robust, and human-compatible AMR systems in complex industrial settings.
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