Introducing a rigid support structure between dunnage boards and membrane packs to evenly distribute weight and minimize stress, preventing deformation in PVC and KEE membranes. Optimized using finite element analysis, this solution enhances product quality and transport efficiency.
The proposed solution addresses the deformation of PVC and KEE membranes during storage and transport by introducing an optimized rigid support structure. By placing this structure between dunnage boards and membrane packs, weight is distributed more evenly, minimizing stress concentrations that lead to indentations and edge bulging. This approach not only prevents deformation but also enhances product quality and extends storage life without altering the core membrane design.
Currently at TRL 3, the solution is in the experimental proof of concept stage. Future work includes detailed FEA to simulate transport conditions and experimental validation with real-world testing to measure effectiveness and improve design robustness.
The University of Denver is a mid-sized private research university with a comprehensive academic profile and an applied, partnership‑oriented culture. Industry collaborates on campus through engineering and computing facilities, shared instrumentation, and prototyping studios designed for sponsored work and rapid iteration. An entrepreneurship hub and incubator‑style programs link faculty and students with Denver’s startup and corporate community, enabling pilots, capstones, and talent pipelines. The university’s proximity to the Denver Tech Center, the Front Range aerospace and energy corridor, and nearby federal laboratories supports convenient site access and frequent engagement. Research is supported by competitive federal funding from agencies such as the National Science Foundation, National Institutes of Health, the Department of Energy, and the Department of Defense, and commercialization is backed by a dedicated technology transfer office for IP and licensing.