search

UMD     This Site





The formation of microfluidic channels in the photoresist layer allows a suspension of TMV particles to be drawn through by capillary action. As the water evaporates, the virus particles self-assemble on the electrodes (a). Nickel-coating the virus particles (b), removing the photoresist, and annealing at 300 °C, leaves a porous, high-surface-area electrode standing above the substrate (c). Courtesy Nanotechnology.

The formation of microfluidic channels in the photoresist layer allows a suspension of TMV particles to be drawn through by capillary action. As the water evaporates, the virus particles self-assemble on the electrodes (a). Nickel-coating the virus particles (b), removing the photoresist, and annealing at 300 °C, leaves a porous, high-surface-area electrode standing above the substrate (c). Courtesy Nanotechnology.

 

New work by University of Maryland nanotechnology researchers is being featured in an article on the website nanotechweb.org.

The article details the results of a new paper published in the journal Nanotechnology, Biofabrication of Tobacco mosaic virus-nanoscaffolded supercapacitors via temporal capillary microfluidics. The paper describes a microfabrication method that uses capillary channels in a photoresist to position nanorods of the tobacco mosaic virus (TMV).

The interdisciplinary researchers include alumnus Faheng Zang (EE Ph.D. 2016; currently a postdoctoral researcher at Princeton University), current EE Ph.D. student Sangwook Chu, alumnus Konstantinos Gerasopoulos (EE Ph.D. 2011 and former postdoc; currently a research scientist at JHU Applied Physics Laboratory), Professor James Culver (Plant Sciences and Landscape Arcitecture) and ISR Director Reza Ghodssi (Electrical and Computer Engineering and ISR). Zang, Chu, and Gerasopoulos all were/are students of Dr. Ghodssi.

The researchers used a quick and simple new approach to create a supercapacitor with nanostructured electrodes. The method can be applied to construct many kinds of microdevices requiring high surface areas.

Read the Nanotechweb article by Marric Stephens here.



Related Articles:
Decade of TMV research leads to never-before-seen microsystems for energy storage, biosensors and self-sustaining systems
Tobacco mosaic virus battery research to star in NSF video
The Diamondback features story on Tobacco Mosaic Virus battery research
Former ISR postdoc Matthew McCarthy earns tenure at Drexel University
Sangwook Chu wins UMD GRID best poster award
UMD, MIT team for new 'superhydrophobic surfaces' patent
Rubloff, Ghodssi featured in JVST-A special issue
Ekaterina Pomerantseva to join Drexel University faculty
Mosteller wins Dean's Master's Student Research Award
Ghodssi gives invited talk at Bio-Inspired Engineering International Symposium

June 16, 2017


«Previous Story  

 

 

Current Headlines

University of Maryland School of Engineering Announces Unprecedented Investment from A. James & Alice B. Clark Foundation

UMD Researchers Develop Stable, Robust Li-ion Battery Chemistry

Five ISR faculty part of $8 million NIH grant to combat hearing loss in older people

Building Together Announcement Garners Extensive Media Coverage

Maryland Power Electronics Laboratory participates in Maryland Manufacturing Day

The Home of the Future

Espy-Wilson's technology included in new Alcatel MOVE TIME smart watch

John Baras named AIAA Associate Fellow

Empowering Voices in Engineering

Research Spearheaded by UMD Receives NSF RAPID Support

 
 
Back to top  
Home Clark School Home UMD Home