New Method Transforms Everyday Materials Like Glass Into Quantum Materials

South Africa News News

New Method Transforms Everyday Materials Like Glass Into Quantum Materials
South Africa Latest News,South Africa Headlines
  • 📰 SciTechDaily1
  • ⏱ Reading Time:
  • 27 sec. here
  • 2 min. at publisher
  • 📊 Quality Score:
  • News: 14%
  • Publisher: 68%

Science, Space and Technology News 2024

Researchers at UCI and Los Alamos National Laboratory have developed a new method to transform everyday materials into conductors suitable for quantum computing. By manipulating the atomic structure through strain, they have created materials with unique quantum properties, marking a significant advancement towards making quantum computers a practical reality. . Credit: SciTechDaily.com

Conventional computers use silicon as a conductor, but silicon has limits. Quantum computers stand to help bypass these limits, and methods like those described in the new study will help quantum computers become an everyday reality. “You can also turn the atomic structure change on or off by controlling the strain, which is useful if you want to create an on-off switch for the material in a quantum computer in the future,” said Jinyu Liu, who is the first author of the paper and a postdoctoral scholar working with Jauregui.

We have summarized this news so that you can read it quickly. If you are interested in the news, you can read the full text here. Read more:

SciTechDaily1 /  🏆 84. in US

South Africa Latest News, South Africa Headlines

Similar News:You can also read news stories similar to this one that we have collected from other news sources.

New method enables synthesis of hundreds of new 2D materialsNew method enables synthesis of hundreds of new 2D materialsMaterials that are incredibly thin, only a few atoms thick, exhibit unique properties that make them appealing for energy storage, catalysis and water purification. Researchers at Linköping University, Sweden, have now developed a method that enables the synthesis of hundreds of new 2D materials.
Read more »

Researchers Develop Method for Synthesis of Hundreds of New 2D MaterialsResearchers Develop Method for Synthesis of Hundreds of New 2D MaterialsResearchers at Linköping University, Sweden, have developed a method that enables the synthesis of hundreds of new 2D materials, which exhibit unique properties and are appealing for energy storage, catalysis, and water purification.
Read more »

New method for analyzing nanoporous materialsNew method for analyzing nanoporous materialsIn addition to their main components, the properties of crystalline and nanoporous materials often depend crucially on guest atoms or ions that are embedded in the tiny pores of their lattice structure. This applies to high-tech materials used in sensor or separation technology as well as to natural materials.
Read more »

Powerful new tool ushers in new era of quantum materials researchPowerful new tool ushers in new era of quantum materials researchResearch in quantum materials is paving the way for groundbreaking discoveries and is poised to drive technological advancements that will redefine the landscapes of industries like mining, energy, transportation, and medtech.
Read more »

Powerful new tool ushers in new era of quantum materials researchPowerful new tool ushers in new era of quantum materials researchResearch in quantum materials is paving the way for groundbreaking discoveries and is poised to drive technological advancements that will redefine the landscapes of industries like mining, energy, transportation, and medtech.
Read more »

Permanent Researcher Positions for Materials Science - Japan (JP) job with National Institute for Materials ScienceOverview National Institute for Materials Science (NIMS, Tsukuba, Japan) invites international applications from researchers who can conduct research in materials science. NIMS employs outstanding scientists from various countries who have abundant knowledge and strong research skills in materials science.
Read more »



Render Time: 2025-08-27 08:03:58