Hunan University | Liu Z | 氧在Zr(101)表面的吸附行为[17] Adsorption behavior of oxygen on Zr(101) surface | 2021 | | |
Capital Normal University | Wang F | 氧在Zr(0001)晶面的吸附过程[18] Adsorption behavior of oxygen on Zr(0001) surface | 2008 | | |
Shanghai University | Zhang H | 氧在低米勒指数锆表面的吸附规律[19] Adsorption of oxygen on zirconium surface with low Miller index | 2018 | | |
University of Oxford | Nicholls R J | 锆金属/氧化物界面处发现的锆亚氧化物相的结构[20] Structure of the zirconium oxide phase found at the zirconium metal/oxide interface | 2013 | | |
Kim Il Sung University | Jong J Y | 锆对腐蚀过程中产生的氢和水中共存氢的吸附作用[21] Adsorption of zirconium to hydrogen produced during corrosion and hydrogen co-existing in water | 2023 | | |
Idaho National Laboratory | Glazoff M V | 氧化锆在氢吸收扩散中的作用[22] The role of zirconia in hydrogen absorption and diffusion | 2014 | | |
Université Paris-Saclay | Haurat E | 单斜氧化锆中氢的扩散行为[23] Hydrogen diffusion behavior in monoclinic zirconia | 2022 | | |
Hunan University | Feng M | 六方密排堆积锆(hcp-Zr)中杂质-氢的相互作用[24] Impurity - hydrogen interaction in hcp-Zr | 2020 | | |
Xi'an Jiaotong University | Liu S M | 氢化物在锆基体中沉淀的过程[25] The process of precipitation of hydride in zirconium matrix | 2022 | | |
Institute of Applied Physics and Computational Mathematics | Zhu X Y | ZrHx的热力学性质(x = 0.5,1,1.5,2)[26] Thermodynamic properties of ZrHx (x = 0.5,1,1.5,2) | 2018 | | |
University of Tokyo | Udagawa Y | 锆与氢化物断裂性能的对比[27] Comparison of fracture properties of zirconium and hydride | 2010 | | |
Malmo University | Olsson P A | 氢填充空位对锆力学性能的影响[28] Effect of hydrogen filling vacancy on mechanical properties of zirconium | 2015 | | |
Universite´ de Lille | Legris A | 碘在锆基面与棱柱面的吸附行为[29] Adsorption behavior of iodine on zirconium base and prismatic surface | 2005 | | |
Imperial College London | Podgurschi V | 施加静水压力(-2% ~ +3%)条件下,碘和氧与锆基体和表面的相互作用[30] Interaction of iodine and oxygen with zirconium substrate and surface under hydrostatic pressure (-2% ~ +3%) | 2022 | | |
State Power Investment Corporation Research Institute | Tu R | 锆中复合碘缺陷的形成能、扩散势垒和振动频率[31] Formation energy, diffusion barrier and vibration frequency of complex iodine defects in zirconium | 2018 | | |
Los Alamos National Lab | Rossi M L | 不同的PBE赝势在计算多种碘化锆产物时误差的对比[32] Error comparison of different PBE pseudopotentivities in calculation of various zirconium iodide products | 2013 | | |
Los Alamos National Lab | Rossi M L | ISCC期间碘-氧-锆的反应过程[33] Iodine-oxygen-zirconium reaction process during ISCC | 2015 | | |
North Carolina State University | Rák | 奥氏体不锈钢(304\\316)的表面能[34] Surface energy of austenitic stainless steels (304\\316) | 2017 | | |
City University of Hong Kong | Wei J | 水在FeCrAl(110)表面吸附的结构[35] Atomic structure of water adsorption process on FeCrAl(110) surface | 2019 | | |
Sun Yat-Sen University | Li X J | 氢在Fe(100)和FeCrAl(100)表面的吸附[36] Hydrogen adsorption on Fe(100) and FeCrAl(100) surface | 2021 | | |
Sun Yat-Sen University | Li X J | Fe、Cr、Al和FeCrAl晶体(110)表面上氢原子的吸附行为[37] Adsorption behavior of hydrogen atoms on (110) surfaces of Fe, Cr, Al and FeCrAl | 2022 | | |
Anhui University | Liu Z | FeΣ3 <110> (111)和Σ5 <001> (310)晶界中氧的特性[38] Properties of oxygen in grain boundaries of Fe Σ3 <110> (111) and Σ5 <001> (310) | 2021 | | |