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US Air Force sponsors the development of a 3D printed runway mat
ITAMCO (Indiana Technology and Manufacturing Companies) has been working with a Purdue University professor, Pablo Zavattieri, to develop a unique 3D printed runway mat for Expeditionary Airfields for US Air Force. Last year the team was competing in Phase 1 of SBIR…
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ITAMCO (Indiana Technology and Manufacturing Companies) has been working with a Purdue University professor, Pablo Zavattieri, to develop a unique 3D printed runway mat for Expeditionary Airfields for US Air Force. Last year the team was competing in Phase 1 of SBIR (Small Business Innovation Research), where they had to present the project plan, taking into account the feasibility and technical merit of the additively manufactured portable runway mat. Their project won, so they were eligible to compete in Phase 2. It was recently announced that ITAMCO and Purdue University were awarded a $1 MILLION grant to build the runway for US Air Force, thus the partners are now moving to the prototyping and testing stage.
Runway mats are a critical component of Expeditionary Airfields (EAFs) for the military. They are designed to be placed on weaker ground surfaces to enable military aircraft to land and takeoff. For decades, the United States military was using a portable runway made with an aluminum plank matting, AM-2. This matting has served them well since the Vietnam War, but the materials and technology are outdated. Therefore, the Air Force is looking forward to using the new 3D printed product conceived by ITAMCO and Purdue University.

Products made with PXCM geometry have the ability to change from one stable configuration to another stable configuration and back again. (Image courtesy of Purdue University)
The objective of the research led by professor Pablo Zavattieri was to develop a robust sheet or roll technology that serves as an alternative to the AM-2 mat for temporary or expeditionary flight operations. The design of the matting solution is composed of an upper surface that mates with a lower surface and contains a type of architectured material called Phase Transforming Cellular Material (PXCM) geometry to mitigate anticipated loading and shear stresses. The ideal solution to manufacture such product was metal 3D printing.





