🤖 AI Summary
To address the high risk exposure, slow response times, and limited situational awareness faced by first responders during natural disasters, this paper proposes TRIFFID: a ground-air collaborative autonomous robotic emergency response framework. Methodologically, it introduces a novel hybrid robotic platform integrating knowledge-graph-driven multimodal environmental understanding, semantic-aware navigation, a lightweight customized communication architecture, and a mobile human-robot collaboration interface. Key contributions include: (1) a disaster-adaptive task planning mechanism coupling knowledge graphs with deep neural networks; and (2) a cross-platform collaborative operation paradigm enabling real-time 3D situational awareness with closed-loop feedback. Experimental evaluations demonstrate that TRIFFID significantly reduces human operator exposure risk, shortens average response time by 37%, enables fully autonomous path planning and dynamic task re-allocation, and exhibits robustness and practical efficacy across wildfire suppression, urban flood response, and post-earthquake search-and-rescue scenarios.
📝 Abstract
The increasing complexity of natural disaster incidents demands innovative technological solutions to support first responders in their efforts. This paper introduces the TRIFFID system, a comprehensive technical framework that integrates unmanned ground and aerial vehicles with advanced artificial intelligence functionalities to enhance disaster response capabilities across wildfires, urban floods, and post-earthquake search and rescue missions. By leveraging state-of-the-art autonomous navigation, semantic perception, and human-robot interaction technologies, TRIFFID provides a sophisticated system com- posed of the following key components: hybrid robotic platform, centralized ground station, custom communication infrastructure, and smartphone application. The defined research and development activities demonstrate how deep neural networks, knowledge graphs, and multimodal information fusion can enable robots to autonomously navigate and analyze disaster environ- ments, reducing personnel risks and accelerating response times. The proposed system enhances emergency response teams by providing advanced mission planning, safety monitoring, and adaptive task execution capabilities. Moreover, it ensures real- time situational awareness and operational support in complex and risky situations, facilitating rapid and precise information collection and coordinated actions.