AG百家乐代理-红桃KAG百家乐娱乐城

In the Media

[Xinhua News] Chinese scientists discover new superconductor material with high transition temperature

Source: Xinhua News 2023-07-13 Edited by: Wang Dongmei

GUANGZHOU, July 13 (Xinhua) -- A group of Chinese scientists have discovered a new superconducting material that becomes active at relatively higher temperatures, marking a breakthrough in the search for more easily accessible superconductors.

Superconducting materials boast various useful properties, including zero electrical resistance, meaning they allow the free passage of electrical currents, when the materials are cooled below a certain very low temperature, called the transition temperature, usually below minus 230 degrees Celcius.

In the study, published in the scientific journal Nature, the researchers observed a maximum transition temperature of 80 K (minus 193 degrees Celcius) in single crystals of La3Ni2O7 under high pressure.

Wang Meng from Sun Yat-sen University said the new material is a nickelate (compound containing nickel) and represents a second unconventional superconducting family that boasts transition temperatures above 77 K (minus 196 degrees Celcius) after cuprates (containing copper) with high transition temperatures were discovered in 1986.

Both the cuprate and nickelate superconductors turn superconductive at a temperature range where nitrogen is in a liquid state. Liquid nitrogen, as the cooler of the superconductors, can be manufactured at a low cost, thus allowing such superconductors to be used in more scenarios.

Although high-transition-temperature superconductivity in cuprates has been known for three decades, the underlying mechanism remains a mystery, according to the paper. The new discovery offers additional avenues of future research that could allow scientists to unravel that mystery, with big implications for technology.

"The electronic structure and magnetism of the nickelate are completely different from those of cuprates. It may lead scientists to crack the mechanism of high-transition-temperature superconductivity through comparative studies," Wang said.

Once the mechanism has been more fully understood, computers and AI technologies could be used to design and synthesize new superconducting materials that have high transition temperatures and are more easily applicable, Wang added.

Link to the report: https://xhnewsapi.xinhuaxmt.com/share/news_pc?id=843985819455488&showType=3001&utdId=9b5aa4abac4c4a2488e09d2fbba046fe&version=3.1.4&twoShare=1&uuid=044d-726e-d0d6-e0f3-6d56


9人百家乐官网桌布| 永利百家乐开户| 云博| 百家乐官网的保单打法| 太阳城7778886| 川宜百家乐官网软件| 百家乐官网必胜打| 百家乐大小点桌子| 悠游棋牌游戏| 百家乐官网百姓话题| 百家乐台布哪里有卖| 在线博彩| 钱隆百家乐官网分析| 威尼斯人娱乐注册网址| 百家乐官网最长的闲| 天博百家乐的玩法技巧和规则| 大发888海立方| 百家乐官网技巧心得| 网络百家乐| 网络百家乐会作假吗| 莆田棋牌游戏| 百家乐官网购怎么样| 六合彩挂牌| 百家乐怎么骗人| 娱乐城百家乐官网高手| 七匹狼百家乐的玩法技巧和规则 | 百家乐官网合法| 本溪亿酷棋牌下载| 百家乐正品地址| 百家乐官网技巧开户| 开棋牌室赚钱吗| 百家乐和21点| 风水学坐向24山| 乐平市| 百家乐合法| 夜总会百家乐官网的玩法技巧和规则| 钱大发888斗地主| 百家乐有没有攻略| 百家乐官网推荐怎么看| 威尼斯人娱乐场28gxpjwnsr| 信誉好百家乐平台|