US Marine Corps Seeks Robots for Automated Expeditionary Airfield Construction
The US Marine Corps has launched a Small Business Innovation Research (SBIR) initiative to develop autonomous robots capable of constructing expeditionary airfields in austere environments. Currently, assembling Expeditions Airfield (EAF) matting is a physically demanding, labor-intensive, and hazardous manual task for Marines. The new project, titled 'Automated Expeditionary Airfield Assembly,' aims to replace this grunt work with robotic systems that can navigate uneven terrain, avoid obstacles, and precisely position heavy aluminum mats without human assistance. The proposal outlines a three-phase development process. Phase I focuses on demonstrating technical feasibility, while Phase II requires a functional prototype for realistic environments. Phase III involves deploying a hardened system resistant to environmental and cyber threats. Key evaluation metrics include payload capacity, manipulation precision, power consumption, and overall reduction in manning requirements and deployment time. This initiative aligns with broader military efforts to integrate robotics into logistics and construction, leveraging advancements in mobile manipulators and assistive technologies to enhance operational efficiency and personnel safety in remote amphibious beachheads.
Wire timeline
US Marine Corps Seeks Robots for Automated Expeditionary Airfield Construction
The US Marine Corps has launched a Small Business Innovation Research (SBIR) initiative to develop autonomous robots capable of constructing expeditionary airfields in austere environments. Currently, assembling Expeditions Airfield (EAF) matting is a physically demanding, labor-intensive, and hazardous manual task for Marines. The new project, titled 'Automated Expeditionary Airfield Assembly,' aims to replace this grunt work with robotic systems that can navigate uneven terrain, avoid obstacles, and precisely position heavy aluminum mats without human assistance. The proposal outlines a three-phase development process. Phase I focuses on demonstrating technical feasibility, while Phase II requires a functional prototype for realistic environments. Phase III involves deploying a hardened system resistant to environmental and cyber threats. Key evaluation metrics include payload capacity, manipulation precision, power consumption, and overall reduction in manning requirements and deployment time. This initiative aligns with broader military efforts to integrate robotics into logistics and construction, leveraging advancements in mobile manipulators and assistive technologies to enhance operational efficiency and personnel safety in remote amphibious beachheads.
C4ISRNet