Every month, we highlight an outstanding example of UNH intellectual property with excellent commercial potential. Contact email@example.com for more information about any of UNH's innovations.
Viscoelastic Liquid Drop Generator
A patented method of creating discrete droplets of a desired size from viscoelastic materials, eliminating waste caused by the the beads-on-a-string effect, which is common when dispensing viscoelastic material.
3D printing of polymer solutions/melts
Dispensing of protein solutions/biofluids
Printable electronic circuits and components
Continuous encapsulation of viscoelastic fluids
Viscous liquid packaging equipment
Electronics – surface mount technologies
Selective adhesive processes
Custom gasket sealing applications
Handles a wide range of viscoelastic materials
Eliminates the beads-on-a-string effect
Produces precise uniform droplets
US Patent No. 10258986 B2
In almost every situation involving fluid handling, from the lab bench to the factory floor, viscoelastic fluids are present. Typically, dispensing viscoelastic materials is plagued by long filament and multiple daughter drop formation seen in the beads-on-a-string effect. Given the wide ranges of viscoelasticity different fluids may possess, current technology struggles to precisely dispense these difficult fluids. This UNH innovation successfully eliminates the detrimental beads on-a-string effect in a laboratory setting. Its customizable design can be adapted to a microscale or macroscale for a wide range of droplet sizes and production speeds. It can also be refined for a specific range of viscoelasticity for a given material. Dispensing can be done using an immiscible carrying fluid or gas. The device and methodology are ripe for utilization, and the process can be scaled up to address much larger manufacturing needs.
Lead Innovators, Brian Zukas, Ph.D. & Nivedita Gupta, Ph.D.
Dr. Brian Zukas received his Ph.D. in chemical engineering from the University of New Hampshire in 2018. He also has a B.S. and M.S. in chemical engineering from UNH. He has expertise in viscoelastic fluid flows, encapsulation, and microfluidics.
Nivedita Gupta, Ph.D. is a professor of chemical engineering at UNH. Gupta received her Ph.D. in chemical engineering from Penn State University in 1999. Her research interests are in the areas of interfacial flows, Marangoni flows, computational fluid dynamics, and microfluidics.
For more information, contact Matt Simon
Senior Licensing Manager for Engineering & Physical Sciences
firstname.lastname@example.org | 603.862.0829