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Xiaobing Ren
H指数:72
被引数:2.5万
个人简介
Professor Xiaobing Ren is an internationally renowned scholar in ferroic smart materials, recognized as a Changjiang Scholar, National Outstanding Young Scientist, and Chief Scientist of China's 973 Major Basic Research Project. His research spans ferroelastic/shape memory alloys, ferroelectric/piezoelectric materials, and ferromagnetic/magnetostrictive materials. With nearly 400 publications in journals such as Nature, Science, Nature Materials, and Physical Review Letters, his work has been cited over 30,000 times. Two of his papers have received more than 5,600 and 3,100 citations respectively, ranking first in the field of martensitic/shape memory alloys and among the top three in lead‑free piezoelectrics (ranking data from Web of Science data). Professor Ren pioneered the field of strain glass, a topic that has become a theme in multiple international conferences and also in the Shape Memory Alloy Consortium (CASMART) led by NASA and other industrial partners. His recent discovery of an "ultrasoft yet ultrastrong" strain glass metal (Nature 2024) was highlighted by New Scientist as promising for transformative applications such as morphing aircraft. His contributions have earned him a number of prestigious awards, including the State Natural Science Award (Second Class, First Rank), the Japan Institute of Metals "Outstanding Young Researcher Award" and "Achievement Award," and the American Ceramic Society's Spriggs Phase Equilibria Award.
教育背景
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工作经历
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荣誉奖项
- Changjiang Scholar
- National Outstanding Young Scientist
- Chief Scientist of China’s 973 Major Basic Research Project
- State Natural Science Award (Second Class, First Rank)
- Japan Institute of Metals “Outstanding Young Researcher Award”｜Japan Institute of Metals
- American Ceramic Society's Spriggs Phase Equilibria Award｜American Ceramic Society
通过双氧八面体倾斜纳米畴在低电场下打破(Bi<sub>0.5</sub>Na<sub>0.5</sub>)TiO<sub>3</sub>基弛豫铁电体的能量-功率权衡
通过Hf离子调控提升PSLZST反铁电陶瓷的能量存储性能
通过BSNT掺杂和改性优化BNT基陶瓷的储能性能
在低电场下同时优化BNT陶瓷的透明度和储能性能
在处于四重点状态下的多晶陶瓷中产生的巨大压电效应
Science
IF45.8
AgNbO3基陶瓷中通过反极性区域与缺陷对之间的渗流相互作用实现超高的储能密度和效率
Nature Communications
IF15.7
双掺杂策略用于增强Bi₀.₅Na₀.₅TiO₃基陶瓷的储能性能
环境吸附物模糊双层六方氮化硼的滑移铁电极化
NANO LETTERS
IF9.1
跨尺度忆阻器基类脑计算平台：连接物理编码与医学推断
有机薄膜隧道晶体管
Nature Electronics
IF40.9
无铅三弛豫铁电体：顺电态下高能量存储容量和宽工作温度范围
Advanced Materials
IF26.8
基于血液生物忆阻器的一种创新性近视诊断方法
Materials Today Bio
IF10.2
受监测胶质瘤肿瘤细胞设计启发的生物相容性忆阻器的生物医学应用
水泥改良风积砂损伤过程中的声发射演化特征及可能来源
在铁电BaTiO3-BaZrO3-BaSnO3三元体系中发现一条关键线，并利用该线设计具有宽温域高介电常数的多元临界组分多层陶瓷。
Acta Materialia
IF9.3
通过回滞弛豫铁电相变实现温度不敏感的高压电性能
Advanced Science
IF14.1
通过应变增强的玻璃态共存的极化物（具有高动力学特性）提升无铅铁电体的极化和压电响应
Advanced Science
IF14.1
通过受体修改的不可见边界实现高机械品质因数和高压电系数
在宽温度范围内，一种自组织弛豫铁电-反铁电纳米复合材料的优异储能性能
ADVANCED MATERIALS
IF26.8
