Home > News > MIND over matter
January 11th, 2010
MIND over matter
Abstract:
The current technology that powers modern day electronics — the complementary metal oxide semiconductor (CMOS) switch — is about to hit a wall.
That's the assessment of nanoelectronics experts around the globe, including researchers right here in South Bend, at the University of Notre Dame's Center for Nano Science and Technology (NDnano) and the Midwest Institute for Nanolectronics Discovery (MIND).
One promising technology uses electron tunneling, a phenomenon of quantum mechanics, which describes the transfer of electrons across energy barriers. As Porod explains, electron tunneling allows engineers to better control the flow of electrons across much shorter distances than in a current microprocessor chip, turning them "on" and "off" as needed, and with less power, so that they are more efficient.
In Seabaugh's laboratory, researchers are constructing tunneling transistors, devices in which quantum-mechanical tunneling is controlled electronically. The transistor itself is made from a stack of materials, where all of the thicknesses are measured in nanometers, consisting of semiconductors, oxides and metals. The challenge for Seabaugh and his colleagues is to manipulate the thickness of the barrier to better control electron flow.
Source:
southbendtribune.com
Bookmark:
| Related News Press |
News and information
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Academic/Education
Rice University launches Rice Synthetic Biology Institute to improve lives January 12th, 2024
Multi-institution, $4.6 million NSF grant to fund nanotechnology training September 9th, 2022
Chip Technology
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Programmable electron-induced color router array May 14th, 2025
Enhancing power factor of p- and n-type single-walled carbon nanotubes April 25th, 2025
Ultrafast plasmon-enhanced magnetic bit switching at the nanoscale April 25th, 2025
Quantum Computing
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
Magnetism in new exotic material opens the way for robust quantum computers June 4th, 2025
Programmable electron-induced color router array May 14th, 2025
Nanoelectronics
Interdisciplinary: Rice team tackles the future of semiconductors Multiferroics could be the key to ultralow-energy computing October 6th, 2023
Key element for a scalable quantum computer: Physicists from Forschungszentrum Jülich and RWTH Aachen University demonstrate electron transport on a quantum chip September 23rd, 2022
Reduced power consumption in semiconductor devices September 23rd, 2022
Atomic level deposition to extend Moore’s law and beyond July 15th, 2022
Announcements
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Quantum computers simulate fundamental physics: shedding light on the building blocks of nature June 6th, 2025
A 1960s idea inspires NBI researchers to study hitherto inaccessible quantum states June 6th, 2025
Alliances/Trade associations/Partnerships/Distributorships
Chicago Quantum Exchange welcomes six new partners highlighting quantum technology solutions, from Chicago and beyond September 23rd, 2022
University of Illinois Chicago joins Brookhaven Lab's Quantum Center June 10th, 2022
Quantum nanoscience
Programmable electron-induced color router array May 14th, 2025
 |
||
 |
||
| The latest news from around the world, FREE | ||
 |
||
|
|
||
| Premium Products | ||
 |
||
|
Only the news you want to read!
Learn More |
||
 |
||
|
Full-service, expert consulting
Learn More |
||
|
|
||