Nanotechnology Now

Our NanoNews Digest Sponsors
Heifer International



Home > Press > New superconducting hybrid crystals developed at University of Copenhagen

The interface between the semiconductor and the metal is perfect and establish the new superconducting hybrid crystals, which could ultimately form the basic for future superconducting electronics.
CREDIT: Niels Bohr Institute
The interface between the semiconductor and the metal is perfect and establish the new superconducting hybrid crystals, which could ultimately form the basic for future superconducting electronics.

CREDIT: Niels Bohr Institute

Abstract:
A new type of 'nanowire' crystals that fuses semiconducting and metallic materials on the atomic scale could lay the foundation for future semiconducting electronics. Researchers at the University of Copenhagen are behind the breakthrough, which has great potential.

New superconducting hybrid crystals developed at University of Copenhagen

Copenhagen, Denmark | Posted on January 12th, 2015

The development and quality of extremely small electronic circuits are critical to how and how well future computers and other electronic devices will function. The new material, comprised of both a semiconductor and metal, has a special superconducting property at very low temperatures and could play a central role in the development of future electronics.

- Our new material was born as a hybrid between a semiconducting nanowire and its electronic contact. Thus we have invented a way to make a perfect transition between the nanowire and a superconductor. The superconductor in this case is aluminium. There is great potential in this, says Associate Professor Thomas Sand Jespersen, who has worked in the field for more than 10 years, ever since research into nanowire crystals has existed at the Nano-Science Center at the Niels Bohr Institute.

Nanowire and contact formed at the same time

Nanowires are extremely thin nanocrystal threads used in the development of new electronic components, like transistors and solar cells. Part of the challenge of working with nanowires is creating a good transition between these nanowires and an electrical contact to the outside world. Up until now, researchers, not just at the Niels Bohr Institute, but from all over the world, have cultured nanowires and the contact separately. However, with the new approach, both the quality and the reproducibility of the contact have improved considerably.

- The atoms sit in a perfectly ordered lattice in the nanowire crystal, not only in the semiconductor and the metal, but also in the transition between the two very different components, which is significant in itself. You could say that it is the ultimate limit to how perfect a transition one could imagine between a nanowire crystal and a contact. Of course this opens many opportunities to make new types of electronic components on the nanoscale and in particular, this means that we can study the electrical properties with much greater precision than before, explains Assistant Professor Peter Krogstrup, who has worked hard in the laboratory to develop the contact.

Chips with billions of nanowire hybrids

In their publication in Nature Materials, the research group has demonstrated this perfect contact and its properties and has also shown that they can make a chip with billions of identical semiconductor-metal nanowire hybrids.

- We think that this new approach could ultimately form the basis for future superconducting electronics, and that is why the research into nanowires is interesting for the largest electronics companies, says Thomas Sand Jespersen. Both Peter Krogstrup and Thomas Sand Jespersen is part of The Center for Quantum Devices led by Professor Charles Marcus, and they have close research collaboration with Microsoft. The research is further supported by the Carlsberg Foundation and the Lundbeck Foundation.

####

For more information, please click here

Contacts:
Gertie Skaarup

45-28-75-06-20

Peter Krogstrup, Associate Professor, Niels Bohr Institute, University of Copenhagen (+45) 26 71 51 91,

Thomas Sand Jespersen, Associate Professor
Niels Bohr Institute
University of Copenhagen
(+45) 28750164

Copyright © University of Copenhagen - Niels Bohr Institute

If you have a comment, please Contact us.

Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.

Bookmark:
Delicious Digg Newsvine Google Yahoo Reddit Magnoliacom Furl Facebook

Related News Press

News and information

Quantum computer improves AI predictions April 17th, 2026

Flexible sensor gains sensitivity under pressure April 17th, 2026

A reusable chip for particulate matter sensing April 17th, 2026

Detecting vibrational quantum beating in the predissociation dynamics of SF6 using time-resolved photoelectron spectroscopy April 17th, 2026

New UBC wash removes pesticides and extends produce shelf life: Natural, biodegradable rinse removes up to 96 per cent of pesticide residue and slowed spoilage in apples and grapes April 17th, 2026

Superconductivity

Qjump: Shallow-circuit quantum sampling guides combinatorial optimization On up to 104 superconducting qubits, Qjump assists in searching the ground states of hard Ising problems and might outperform simulated annealing on near-term quantum hardware April 17th, 2026

MXene nanomaterials enter a new dimension Multilayer nanomaterial: MXene flakes created at Drexel University show new promise as 1D scrolls January 30th, 2026

Researchers demonstrates substrate design principles for scalable superconducting quantum materials: NYU Tandon–Brookhaven National Laboratory study shows that crystalline hafnium oxide substrates offer guidelines for stabilizing the superconducting phase October 3rd, 2025

Chip Technology

A reusable chip for particulate matter sensing April 17th, 2026

When light gets trapped at nanoscale: New ways to power the future of optoelectronics From bound states in the continuum to machine-learning design, photonic metasurfaces are opening scalable routes to efficient light control April 17th, 2026

Rice study resolves decades-old mystery in organic light-emitting crystals: Findings reveal how molecular defects can enhance light conversion efficiency: April 17th, 2026

Metasurfaces smooth light to boost magnetic sensing precision January 30th, 2026

Nanoelectronics

Lab to industry: InSe wafer-scale breakthrough for future electronics August 8th, 2025

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

Discoveries

Quantum computer improves AI predictions April 17th, 2026

Flexible sensor gains sensitivity under pressure April 17th, 2026

A reusable chip for particulate matter sensing April 17th, 2026

Detecting vibrational quantum beating in the predissociation dynamics of SF6 using time-resolved photoelectron spectroscopy April 17th, 2026

Announcements

A fundamentally new therapeutic approach to cystic fibrosis: Nanobody repairs cellular defect April 17th, 2026

Qjump: Shallow-circuit quantum sampling guides combinatorial optimization On up to 104 superconducting qubits, Qjump assists in searching the ground states of hard Ising problems and might outperform simulated annealing on near-term quantum hardware April 17th, 2026

Rice study resolves decades-old mystery in organic light-emitting crystals: Findings reveal how molecular defects can enhance light conversion efficiency: April 17th, 2026

UC Irvine physicists discover method to reverse ‘quantum scrambling’ : The work addresses the problem of information loss in quantum computing system April 17th, 2026

Interviews/Book Reviews/Essays/Reports/Podcasts/Journals/White papers/Posters

A fundamentally new therapeutic approach to cystic fibrosis: Nanobody repairs cellular defect April 17th, 2026

Qjump: Shallow-circuit quantum sampling guides combinatorial optimization On up to 104 superconducting qubits, Qjump assists in searching the ground states of hard Ising problems and might outperform simulated annealing on near-term quantum hardware April 17th, 2026

Rice study resolves decades-old mystery in organic light-emitting crystals: Findings reveal how molecular defects can enhance light conversion efficiency: April 17th, 2026

UC Irvine physicists discover method to reverse ‘quantum scrambling’ : The work addresses the problem of information loss in quantum computing system April 17th, 2026

Grants/Sponsored Research/Awards/Scholarships/Gifts/Contests/Honors/Records

Quantum computer improves AI predictions April 17th, 2026

Detecting vibrational quantum beating in the predissociation dynamics of SF6 using time-resolved photoelectron spectroscopy April 17th, 2026

Rice study resolves decades-old mystery in organic light-emitting crystals: Findings reveal how molecular defects can enhance light conversion efficiency: April 17th, 2026

Metasurfaces smooth light to boost magnetic sensing precision January 30th, 2026

NanoNews-Digest
The latest news from around the world, FREE




  Premium Products
NanoNews-Custom
Only the news you want to read!
 Learn More
NanoStrategies
Full-service, expert consulting
 Learn More











ASP
Nanotechnology Now Featured Books




NNN

The Hunger Project