Versatile Polymer Mesh Membranes: Controlled, Affordable, Customizable.

ID U-7514

Category Materials

Subcategory Polymers

Researchers
Jiyoung Chang Jungkyu Kim NOORI NAMinju Kim
Brief Summary

Custom polymer mesh membranes with controlled pore size, shape, and mechanical properties at a low cost.

Problem Statement

Traditional membrane fabrication methods pose significant challenges for manufacturers, leading to inconsistent porosity and performance unpredictability, exacerbated by nonuniformity issues and limited configurational flexibility. The need for frequent re-tooling further hinders scalability, driving up production costs and decreasing the adoption of commercially available porous membranes. Our proposed approach addresses these pain points by ensuring consistent production, enhancing configuration control, and optimizing key membrane attributes, ultimately improving reliability and increasing the utilization of porous membranes in various applications.

Technology Description

A revolutionary approach to polymer mesh membrane manufacturing! Our cutting-edge technology empowers precise control over pore size, shape, and mechanical attributes during the fabrication process. Leveraging high-precision, near-field electrospinning, we strategically position polymer fibers in programmable patterns, resulting in cost-effective, tailor-made membranes. What sets us apart is our ability to effortlessly alter mechanical properties by patterning diverse polymers in various directions, offering an economical solution. Our innovative inventor team has successfully demonstrated the feasibility of our technology analysis and benchtop testing by our innovative inventor team. The University of Utah now seeks commercial partners to collaborate on this exciting project.

Stage of Development

Concept

Benefit

  • Reliable Performance: Consistent porosity and controlled attributes ensure dependable membrane performance.
  • Affordable Customization: Low-cost, tailor-made membranes with precision-controlled properties via high-precision electrospinning.
  • Efficient Scalability: Streamlined production of various configurations without costly re-tooling, enhancing overall manufacturing efficiency.
  • Proven Feasibility: Rigorous testing and computational analysis validate the reliability and practicality of our innovative membrane manufacturing approach.


Publications

Shin et. al., 2018 “Experimental study on jet impact speed in near-field electrospinning for precise patterning of nanofiber”, Journal of Manufacturing Processes, vol. 36, pp. 231-237

Contact Info

Jonathan Tyler
801-587-0515
jonathan.tyler@utah.edu

Questions?

We support you and your innovation.

Wherever you are on your innovation journey, the Technology Licensing Office is your go-to source to connect you with the U’s innovation ecosystem.

Call 801.581.7792 or send us a message