Yury Gogotsi, PhD

Distinguished University and Bach Professor of Materials Science and Engineering

Gogotsi is the director of the A.J. Drexel Nanomaterials Institute and leads research in the Nanomaterials Research Group in the College of Engineering. He is a foremost expert on carbon-based nanomaterials (nanotubes, nanodiamonds, nanoporous carbons, carbon onions and carbides) and is pioneering the use of new materials, such as MXenes, for energy storage.

His work on materials for energy storage has been published in the top scientific journals (Science, Nature, Nature Materials, etc.) and he has commented in the media on stories related to batteries, renewable energy and energy storage. Gogotsi has been recognized with numerous national and international awards in his field including the 2014 Fred Kavli Distinguished Lectureship from the Materials Research Society, Ross Coffin Purdy award from the American Ceramic Society and the 2012 European Carbon Association Award. His name is included in the list of highly cited researchers published by Thomson-Reuters in 2014. 

Related from the Drexel News Blog

In The News

Replacing Thick Insulation With Thin MXenes
Yury Gogotsi, PhD, distinguished university and Bach professor in the College of Engineering, was featured in a Jan. 13 TechBriefs story about his recently published research about the rare combination of electrical conductivity and thermal insulation capabilities found in MXene nanomaterials.
Looking to Kirigami to Shape Modern Wireless Technology
Yury Gogotsi, PhD, distinguished university and Bach professor in the College of Engineering, and Lingyi Bi, a doctoral student in the College of Engineering, were quoted in a Nov. 21 Tech Briefs story about their research looking at how the ancient art of kirigami could be used to produce tunable MXene antennas.
MXene Nanomaterials for Wireless Charging in Textiles
Yury Gogotsi, PhD, distinguished university and Bach professor in the College of Engineering, and Alex Inman, PhD, a recent graduate and former doctoral researcher, were quoted in Nov. 6 Tech Briefs and Securities.io stories about their work to develop and test a wireless charging textile energy grid using MXene ink.
This Microcapacitor Charges 100 Million Times Faster Than Lithium-ion Batteries 
Yury Gogotsi, PhD, Distinguished University and Bach professor in the College of Engineering, was quoted in a May 14 IEEE Spectrum story about new microcapacitor technology that can charge 100 million times faster than a lithium-ion battery.

Related Articles

MXene air filter Closing the Gaps — Coating Air Filters With MXene Nanomaterial Can Enhance Performance and Reusability
Despite improvements to air filtration technology in the aftermath of the COVID-19 pandemic, some of the smallest particles — those of automobile and factory emissions — can still make their way through less efficient, but common filters. An interdisciplinary team of researchers from Drexel University’s College of Engineering have introduced a new way to improve textile-based filters by coating them with a type of two-dimensional nanomaterial called MXene.
insulation ‘Layer Down’ — Thin Coating of MXene Material Could Replace Thick Layers of Insulation
Researchers from Drexel University and Université catholique de Louvain (UCLouvain) in Belgium have discovered that MXenes, a type of material known for its excellent electrical conductivity, actually have very low thermal conductivity. This finding challenges the usual link between electrical and heat conduction. And the discovery could lead to new developments in building materials, performance apparel and energy storage solutions.
MXene textile resonator Off the Rack, On the Grid: MXene Nanomaterials Enable Wireless Charging in Textiles
The next step for fully integrated textile-based electronics to make their way from the lab to the wardrobe is figuring out how to power the garment gizmos without unfashionably toting around a solid battery. Researchers from Drexel University, the University of Pennsylvania, and Accenture Labs in California have taken a new approach to the challenge by building a full textile energy grid that can be wirelessly charged. In their recent study, the team reported that it can power textile devices, including a warming element and environmental sensors that transmit data in real-time.
Ancient 3D Paper Art, Kirigami, Could Shape Modern Wireless Technology
Researchers at Drexel University and the University of British Columbia believe kirigami, the ancient Japanese art of cutting and folding paper to create intricate three-dimensional designs, could provide a model for manufacturing the next generation of antennas.