The invention introduces a straight forward method that is easily applied to electronic devices.

About

Stanford Reference: 10-311 Abstract Researchers working at Stanford University and the University of California, Berkeley have developed a novel method for establishing effective electrical contact inside electronic devices that contain carbon nanostructures. Within these devices, a key difficulty is the small contact area that electrically couples the metal electrode with the carbon nanostructures. This invention introduces a graphitic interfacial layer between the carbon nanotubes and the metal; this method has been experimentally demonstrated to lower the electrical resistance to the carbon nanostructure by around an order of magnitude. The low cost and simple design of this invention can be easily applied to any electronic device based on a carbon nanostructure. Applications Any electronic device that is based on carbon nanostructures Carbon Nanotube Field Effect Transistor Carbon Nanotube sensors Carbon Nanotubes memory switch Carbon Nanotubes interconnect wiring Carbon Nanotube interconnect wiring Carbon Nanotube Field Effect Transistor Carbon Nanotube transparent electrode Graphene Interconnect Wiring Graphene transparent electrode Advantages Ease of Use The amorphous carbon is easily graphitized Simple The invention introduces a straight forward method that is easily applied to electronic devices Low Cost Lowers Resistance Experimentally shown to lower electrical resistance in carbon nanostructure by around an order of magnitude  

Register for free for full unlimited access to all innovation profiles on LEO

  • Discover articles from some of the world’s brightest minds, or share your thoughts and add one yourself
  • Connect with like-minded individuals and forge valuable relationships and collaboration partners
  • Innovate together, promote your expertise, or showcase your innovations