An innovative aerodynamic upper and midsole design that maximizes evaporative airflow in performance footwear. By redirecting air through a glueless construction and strategically mapped materials, RAMJET technology increases ventilation to under-ventilated areas of the foot, enhancing athlete comfort, drying speed, and sustainability without compromising debris protection.
RAMJET technology is a novel footwear design solution that addresses a persistent challenge in athletic performance: keeping feet cool, dry, and comfortable during high-output activities. By integrating an aerodynamic upper and midsole design, RAMJET directs airflow through the shoe to maximize evaporative cooling in regions of the foot that are typically under-ventilated, including the bottom, arch, and sides. The technology is built on the principle that improved heat and vapor dissipation directly enhances perceived comfort and athletic performance, as supported by published research linking foot temperature and humidity to sock comfort during sport activities.
Beyond performance benefits, RAMJET advances broader product goals including enhanced ventilation, sustainability through glueless construction and responsibly sourced fibers, debris protection, and a distinctive product silhouette that differentiates it in the market.
Key features and design elements:
Validation results:
In controlled testing using a modified UA HOVR Phantom 3 SE, the RAMJET-equipped shoe demonstrated an initial 100% increase in drying speed compared to the unaltered control shoe. As the front regions of both socks dried, evaporative differences tapered off, and the unaltered rear sections of both shoes dried at the same rate, confirming that the technology successfully redirected airflow specifically to the modified regions.
RAMJET is currently at an advanced prototype stage. Proof-of-concept validation has been completed, demonstrating measurable improvements in drying speed and airflow redirection. A structured 10-month development plan is underway with three primary objectives: developing a working prototype that significantly increases heat and moisture dissipation, implementing glueless attachment technology, and confirming sustainable fiber sourcing and testing. The project timeline progresses through prototype development, glueless attachment integration, sustainable material sourcing, final product development, finalization, and review and presentation. The team is actively seeking industry partnership to support further testing, access to materials, and laboratory resources needed to advance toward full product implementation.
The University of Oregon is a comprehensive public research university serving more than 20,000 students, pairing liberal-arts breadth with research-intensive programs. A dedicated campus for accelerating scientific impact co-locates labs, prototyping spaces, and entrepreneurship support with corporate engagement to speed collaboration. Shared-use core facilities and maker resources offer external access, and a Portland presence connects faculty and students to regional industry via internships and sponsored work. Research is supported by the National Science Foundation, the National Institutes of Health, and other competitive federal sources, alongside state and industry agreements. A technology transfer office provides IP strategy, licensing, and startup support.