Home > News > DNA to Direct Nanowire Assembly and Growth
July 14th, 2006
DNA to Direct Nanowire Assembly and Growth
Abstract:
A research team led by Brown University engineers has harnessed the coding power of DNA to create zinc oxide nanowires on top of carbon nanotube tips. The feat, detailed in the journal Nanotechnology, marks the first time that DNA has been used to direct the assembly and growth of complex nanowires.
The tiny new structures can create and detect light and, with mechanical pressure, generate electricity. The wires’ optical and electrical properties would allow for a range of applications, from medical diagnostics and security sensors to fiber optical networks and computer circuits.
Source:
Brown University
Bookmark:
Possible Futures
Space Solar Power: Key to a Livable Planet Earth June 10th, 2013
Global Nanotechnology Drug Delivery Market 2012-2016 June 10th, 2013
Nanorobot tetanus treatment animation June 9th, 2013
New horizons to drive the future of Medicine: European Technology Platform on Nanomedicine intends to lead the domain June 8th, 2013
Self Assembly
Filmmaking magic with polymers June 12th, 2013
New microfluidic method expands toolbox for nanoparticle manipulation June 5th, 2013
Organic polymers show sunny potential: Rice, Penn State labs lay groundwork for block copolymer solar cells May 30th, 2013
Scientists at Tokyo Tech have developed a new self-assembled nanostructure that can survive very hot or saline environments May 27th, 2013
Nanotubes/Buckyballs
Unzipped nanotubes unlock potential for batteries: Rice University lab combines graphene nanoribbons with tin oxide for improved anodes June 13th, 2013
The Diabetes ‘Breathalyzer’: Pitt chemists demonstrate sensor technology that could detect and monitor diabetes through breath analysis alone June 10th, 2013
Los Alamos catalyst could jumpstart e-cars, green energy: The new material has the highest oxygen reduction reaction (ORR) activity in alkaline media of any non-precious metal catalyst developed to date June 4th, 2013
Even with Defects, Graphene is Strongest Material in the World: New Study Reveals Strength of CVD Graphene May 31st, 2013
Announcements
Pioneering breakthrough of chemical nanoengineering to design drugs controlled by light June 18th, 2013
Study Shows How the Nanog Protein Promotes Growth of Head and Neck Cancer June 18th, 2013
New Method to Synthesize Zinc Oxide Nanoparticles with High Catalytic Activity June 18th, 2013
Production of Polyaniline Biosensors Modified with Conductive Polymer Composites June 18th, 2013