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Xin Wang
H指数:98
被引数:3.7万
个人简介
"Dr. Xin Wang received his PhD in Mechanical Engineering from University of Arkansas in 2022. He is currently an Assistant Professor of Chemistry at Wenzhou-Kean University (WKU). Prior to joining WKU, Dr. Wang conducted postdoctoral research for Pacific Northwest National Laboratory and Solid Energy Systems. Dr. Wang’s research focuses on applying advanced Atomic/Molecular Layer Deposition (ALD/ MLD) techniques to Li-ion and Li-metal batteries, with the goal of enhancing their energy density and cycling stability. He has made non-negligible contributions to the field of rechargeable batteries, including pioneering metal sulfide coatings on LiNixMnyCo1−x−yO2 (NMC) cathodes and elucidating their protection mechanisms. In addition, he developed a novel polymer coating for Li metal anodes that cannot be achieved through conventional deposition methods. Since 2019, his work has been published in leading journals, such as Nano Energy, Matter, Energy Storage Materials, Journal Energy Chemistry and Chemical Engineering Journal."
教育背景
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工作经历
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荣誉奖项
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下一代基于共价有机框架（COFs）的超电容电极材料的涌现前沿
通过海藻酸钠/支链淀粉水凝胶微球结肠靶向共递送多柔比星和益生菌用于结直肠癌治疗
Polymer
IF4.5
双功能表面活性剂改性电解质，用于提高水性锌电池的日历和循环寿命
通过三维梯度调制策略实现协同功函数优化，用于高性能ORR电催化
由生物炭改良在毛管区内诱导的陡峭湿度梯度，显著降低了人工湿地的N2O排放。
氧化驱动的合成分子网络实现了在活细胞中的动态组装和荧光调节
纳米晶结构主导的选择性氧化：揭示NiCoCrAlY涂层在1000 °C下增强α-Al₂O₃形成的机制
惰性组化学结构演化对热模拟过程中金属元素迁移的影响
Fuel
IF7.5
通过Bi(Mg0.5Zr0.5)O3掺杂实现(Na0.2Bi0.2Ba0.2Sr0.2Zn0.2)TiO3高熵陶瓷的高储能性能和高可靠稳定性
铁介导的热传导混合界面工程用于1.3 V水系对称超级电容器
Small
IF12.1
低压驱动下，通过亚硝酸盐还原与甲醛氧化耦合系统，在超稳定AuCuRh纳米线光照条件下协同生产氨、甲酸盐和氢气。
Advanced Materials
IF26.8
通过Ni-HAB MOF衍生的导电配体重构电双层：调控德拜长度并降低析氧反应的脱质子能垒
Inorganic Chemistry
IF4.7
通过构建KNN基陶瓷中的多尺度异质结构，同时调控压电性能及其温度稳定性。
通过(K0.5Na0.5)NbO3掺杂增强(Na0.2Bi0.2Ba0.2Sr0.2Ca0.2)TiO3的能量存储性能和介电温度稳定性
由MnOOH衍生的富含氧空位的MnO2，通过过硫酸氢盐活化增强苯酚降解
中国患者与西方国家患者髓系发育不良性肿瘤的临床和实验室特征及生存差异
LEUKEMIA RESEARCH
IF2.2
一种基于铜的单原子材料能够有效控制植物病害，具有几乎零土壤残留和低植物毒性。
Science Bulletin
IF21.1
同时增强苯吸附和苯/环己烷分离：通过修饰金属-有机框架的孔环境
J. Mater. Chem. A
IF9.5
基于1; 1′-双(3; 5-二羧基苄基)-2; 2′-双咪唑啉构建的三种不同拓扑结构的Co(II)-MOFs用于高效藏红T光降解：催化机制的见解
