🤖 AI Summary
To address the dual challenges of labor shortages and stagnant productivity in the construction industry, this paper proposes and validates an autonomous material transportation system tailored for dynamic construction environments. Methodologically, the system is built upon the CD110R-3 tracked platform and integrates high-precision GNSS positioning, multi-source external sensor fusion for perception and mapping, adaptive terrain navigation, and multi-robot cooperative scheduling—thereby overcoming critical bottlenecks including environmental dynamism, evolving terrain topology, and suboptimal sensor placement. Experimental validation in real-world construction sites demonstrates the system’s feasibility and robustness, significantly enhancing environmental adaptability and operational efficiency of unmanned material transport. This work provides a deployable technical pathway and foundational insights for robotics-enabled intelligent construction, identifying autonomous navigation, construction-aware perception, and swarm-level coordination as three core research directions.
📝 Abstract
As labor shortages and productivity stagnation increasingly challenge the construction industry, automation has become essential for sustainable infrastructure development. This paper presents an autonomous payload transportation system as an initial step toward fully unmanned construction sites. Our system, based on the CD110R-3 crawler carrier, integrates autonomous navigation, fleet management, and GNSS-based localization to facilitate material transport in construction site environments. While the current system does not yet incorporate dynamic environment adaptation algorithms, we have begun fundamental investigations into external-sensor based perception and mapping system. Preliminary results highlight the potential challenges, including navigation in evolving terrain, environmental perception under construction-specific conditions, and sensor placement optimization for improving autonomy and efficiency. Looking forward, we envision a construction ecosystem where collaborative autonomous agents dynamically adapt to site conditions, optimizing workflow and reducing human intervention. This paper provides foundational insights into the future of robotics-driven construction automation and identifies critical areas for further technological development.