Publications

Group highlights

(For a list of publications see below or go to Google Scholar, ResearcherID)

Design high-entropy carbide ceramics from machine learning

We develop machine learning techniques to predict the single-phase formation ability of high-entropy carbide ceramics materials. The predictions are validated by experiments.

Jun Zhang, Biao Xu, Yaoxu Xiong, Shihua Ma, Zhe Wang, Zhenggang Wu, Shijun Zhao

npj Computational Materials, 8, 1 (2022)

Application of machine learning in understanding the irradiation damage mechanism of high-entropy materials

This is a Mini Review paper in the Risinig Stars in JNM special issue. In this publication, we review the applications of machine learning techniqiues in the field of radiation damage specifically for high-entropy materials.

Shijun Zhao

Journal of Nuclear Materials 559, 153462 (2022)

 

Book Chapter

Shijun Zhao, Yanwen Zhang, William J Weber
High Entropy Alloys: Irradiation
Reference Module in Materials Science and Materials Engineering
Elsevier 2020

 

List of publications in the last five years

2025

  1. Fu Haijun, Huang Shasha, Xu Biao, Zhang Jun, Ma Shihua, Xiong Yaoxu, Lu Wenyu, Xiang Xuepeng, and Zhao Shijun, Temperature-dependent defect recombination mechanism in concentrated alloys from accelerated dynamics simulations, Acta Materialia, 292 (2025), pp. 121066 .

  2. Wang Hang, Ma Shihua, Zhao Weijiang, He Quanfeng, Liu Yong, Zhao Shijun, and Yang Yong, Exceptionally low thermal conductivity in distorted high entropy alloy, Materials Research Letters, 13 (2025), pp. 24–34 .

  3. Xiang Xuepeng, Ma Zilin, Zhang Jun, Li Yifeng, Ye Yongjian, Lu Wenyu, Zhou Mengzhen, Huang Shasha, Fu Haijun, Yu Bo, Zhao Shijun, Lin Zhang, and Chen Yan, High‐Throughput DFT‐Assisted Design of Electrode for Efficient High‐Temperature Electrochemical Dehydrogenation, Angewandte Chemie International Edition, (2025), pp. e202502937 .

  4. Lu Wenyu, Xu Jingru, Huang Shasha, Xiang Xuepeng, Fu Haijun, Gu Xinlei, Xu Baichuan, Yang Ailin, Wu Zhenggang, and Zhao Shijun, The coupling of carbon non-stoichiometry and short-range order in governing mechanical properties of high-entropy ceramics, npj Computational Materials, 11 (2025), pp. 64 .

  5. Li Yalin, Wang Yong, Lin Nan, Zhao Shijun, and Wu Zhenggang, Disentangling the oxidation mechanisms of high-entropy carbonitrides, Corrosion Science, 249 (2025), pp. 112850 .

  6. Huang Shasha, Dai Fengfeng, Xiang Xuepeng, Lu Wenyu, Fu Haijun, Wu Zhenggang, and Zhao Shijun, Strengthening or softening: On the impact of off-stoichiometry on the mechanical properties of ZrC, Acta Materialia, 289 (2025), pp. 120892 .

  7. Zhou Yinghao, Xiao Weicheng, Wang Dawei, Tang Xu, Shen Zheling, Li Weipeng, Zhang Jun, Zhao Shijun, Luan Junhua, An Zibing, Shi Rongpei, Yan Ming, Han Xiaodong., Liu C. T., Zhao Yilu, and Yang Tao, Highly printable, strong, and ductile ordered intermetallic alloy, Nature Communications, 16 (2025), pp. 1036 .

  8. Chen Da, Su Zhengxiong, Lu Chenyang, Sun Jianrong, Zhao Shijun, and Kai Ji-Jung, Tailoring the radiation induced dislocation loop behavior in the FeCoNiCr alloy via minor alloying strategy, Journal of Nuclear Materials, 613 (2025), pp. 155862 .

  9. Li Yalin, He Liu, Pan Hao, Zhao Shijun, and Wu Zhenggang, Compositional optimization for enhanced oxidation resistance of high-entropy carbide ceramics, Acta Materialia, 282 (2025), pp. 120463 .

2024

  1. Wang Kun, Yan Yonggang, Xiong Yaoxu, Zhao Shijun, Chen Di and Woller Kevin B, Enhanced radiation resistance of W-based HEA under helium-ion irradiation conditions, Journal of Nuclear Materials, 588 (2024), pp. 154761 .

  2. Xiao Bo, Zhang Jun, Liu Shaofei, Zhou Yinghao, Ju Jiang, Kai Ji-Jung, Zhao Yilu, Yang Xiawei, Xu Lianyong, Zhao Shijun and Yang Tao, Ultrahigh intermediate-temperature strength and good tensile plasticity in chemically complex intermetallic alloys via lamellar architectures, Acta Materialia, 262 (2024), pp. 119459 .

  3. Ma Shihua, Liu Weihong, Li Qian, Zhang Jun, Huang Shasha, Xiong Yaoxu, Xu Biao, Yang Tao and Zhao Shijun, Mechanism of elemental segregation around extended defects in high-entropy alloys and its effect on mechanical properties, Acta Materialia, 264 (2024), pp. 119537 .

  4. Liu Chengpeng, Ye Xiang-Xi, Zhu Zhenbo, Huang Shasha, Zhao Shijun, Lei Guanhong, Ge Lin, Zhang Xiaona, Leng Bin and Huang Hefei, He bubbles inhibition and abnormal hardening in GH3535 alloy by niobium element addition, Journal of Nuclear Materials, 589 (2024), pp. 154841 .

  5. Zhai Ya-Xin, Li Yu-Hao, Yang Tian-Ren, Zhao Shijun, Tian Fuyang, Liu Li-Min, Zhou Hong-Bo and Lu Guang-Hong, Weakening the self-trapping of helium by electron density regulation in WTaVCr high-entropy alloys, Scripta Materialia, 242 (2024), pp. 115930 .

  6. Huang Shasha, Zhang Jun, Fu Haijun, Xiong Yaoxu, Ma Shihua, Xiang Xuepeng, Xu Biao, Lu Wenyu, Zhang Yanwen, Weber William J. and Zhao Shijun, Irradiation performance of high entropy ceramics: A comprehensive comparison with conventional ceramics and high entropy alloys, Progress in Materials Science, 143 (2024), pp. 101250 .

  7. Xiong Yaoxu, Wang Kun and Zhao Shijun, Surface damage of refractory high entropy alloys subject to He irradiation, Journal of Nuclear Materials, 595 (2024), pp. 155060 .

  8. Zhou Y.H., Zhang J.Y., Zhang J., Yao X.Y., Luan J.H., Li Q., Liu S.F., Xiao B., Ju J., Zhao S.J., Zhao Y.L., Sun Z.Y., Nan H., Yan M. and Yang T., A strong-yet-ductile high-entropy alloy in a broad temperature range from cryogenic to elevated temperatures, Acta Materialia, 268 (2024), pp. 119770 .

  9. Xiong Yaoxu, Ma Shihua, Zhang Jun, Huang Shasha, Xu Biao, Fu Haijun, Xiang Xuepeng, Lu Wenyu and Zhao Shijun, Interactions between irradiation-induced defects and dislocations in concentrated solid solution alloys, Journal of Nuclear Materials, 597 (2024), pp. 155144 .

  10. Huang Shasha, Xiong Yaoxu, Ma Shihua, Zhang Jun, Fu Haijun, Xu Biao, Kai Ji-Jung and Zhao Shijun, Enhancing the irradiation resistance of L12 intermetallics by incorporating multiple principal elements through computational modeling, Journal of Materials Research and Technology, 30 (2024), pp. 9274–9284 .

  11. Wang Chaohui, Zhang Jun, Miao Kanghua, Long Mairui, Lai Siyuan, Zhao Shijun and Kang Xiongwu, Octahedral Nanocrystals of Ru-Doped PtFeNiCuW/CNTs High-Entropy Alloy: High Performance Toward pH-Universal Hydrogen Evolution Reaction, Advanced Materials, 36 (2024), pp. 2400433 .

  12. Xiong Yaoxu, Huang Shasha, Zhang Jun, Ma Shihua, Xu Biao, Fu Haijun, Xiang Xuepeng, Lu Wenyu and Zhao Shijun, A Review of Cluster Dynamics in Studying Radiation Damage: Dominant Factors and Practical Implications, JOM, 76 (2024), pp. 5785–5802 .

  13. Li Yalin, Zhao Shijun and Wu Zhenggang, Uncovering the effects of chemical disorder on the irradiation resistance of high-entropy carbide ceramics, Acta Materialia, 277 (2024), pp. 120187 .

  14. Zhang Jun, He Liu, Xiong Yaoxu, Huang Shasha, Xu Biao, Ma Shihua, Xiang Xuepeng, Fu Haijun, Kai Jijung, Wu Zhenggang and Zhao Shijun, Local-distortion-informed exceptional multicomponent transition-metal carbides uncovered by machine learning, npj Computational Materials, 10 (2024), pp. 162 .

  15. Yang Tian-Ren, Wang Yi-Xuan, Li Yu-Hao, Zhao Shijun, Zhou Hong-Bo, Tian Fuyang and Lu Guang-Hong, Exploring the inhibitory effect of WTaVCr high-entropy alloys on hydrogen retention: From dissolution, diffusion to desorption, Journal of Nuclear Materials, 601 (2024), pp. 155346 .

  16. Xiao Hao, Zhao Shuang, Zhang Jun, Zhao Shijun, Li Youbing, Chen Ke, Cao Liuxuan, Wang Yugang, Huang Qing and Wang Chenxu, Distinct amorphization resistance in high-entropy MAX-phases (Ti, M) 2AlC (M= Nb, Ta, V, Zr) under in situ irradiation, npj Computational Materials, 10 (2024), pp. 196 .

  17. Wang H., Yang P. Y., Zhao W. J., Ma S. H., Hou J. H., He Q. F., Wu C. L., Chen H. A., Wang Q., Cheng Q., Guo B. S., Qiao J. C., Lu W. J., Zhao S. J., Xu X. D., Liu C. T., Liu Y., Pao C. W. and Yang Y., Lattice distortion enabling enhanced strength and plasticity in high entropy intermetallic alloy, Nature Communications, 15 (2024), pp. 6782 .

  18. Ren Xiaoying, Mei Xuesong, Zhou Jingzhuo, Wang Xuewen, Wei Fengqi, Mei Huanhuan, Zhao Shijun, Lu Yang and Cui Jianlei, Laser-Induced Self-Limiting Welding of Ag Nanowires with High Mechanical and Electrical Performance, Advanced Materials, 36 (2024), pp. 2408575 .

  19. Xiong Yaoxu, Yan Jiaohui, Huang Shasha, Zhang Jun, Ma Shihua, Xu Biao, Jin Ke and Zhao Shijun, Diminished Role of Grain Boundaries in Mitigating Irradiation Damage in Multi-Principal Element Alloys, High Entropy Alloys & Materials, (2024), pp. 1–13 .

  20. Huang Shasha, Fu Haijun, Xiong Yaoxu, Lu Wenyu, Ma Shihua, Xiang Xuepeng, Kai Ji-Jung and Zhao Shijun, Radiation response of multicomponent L12 $\gamma$′ precipitates strengthened high entropy alloys: The role of $\gamma$/$\gamma$′ interface, Journal of Materials Research and Technology, 33 (2024), pp. 9289–9296 .

2023

  1. Tang Yunqi, Mak Chun Hong, Zhang Jun, Jia Guohua, Cheng Kuan‐Chen, Song Haisheng, Yuan Mingjian, Zhao Shijun, Kai Ji‐Jung, Colmenares Juan Carlos, and Hsu Hsien‐Yi, Unravelling the Interfacial Dynamics of Bandgap Funneling in Bismuth‐Based Halide Perovskites, Advanced Materials, 35 (2023), pp. 2207835 .

  2. Liu Shaofei, Yeli Guma, Chen Da, Lin Weitong, Zhao Yilu, Luan Junhua, Zhao Shijun, Yang Tao, and Kai Ji-jung, NiCoCr-based medium-entropy alloys with superior resistance to radiation hardening and helium cavity growth, Journal of Nuclear Materials, 574 (2023), pp. 154196 .

  3. Fan Cuncai, Zhao Shijun, Pan Shuai, He Binbin, and Huang Mingxin, Helium radiation blistering mechanisms in tungsten: Ion channeling effects, Materialia, 27 (2023), pp. 101664 .

  4. Xiong Yaoxu, Zhang Jun, Ma Shihua, Xu Biao, and Zhao Shijun, Revealing the governing factors for long-term radiation damage evolution in multi-principal elemental alloys through atomistically-informed cluster dynamics, Materials & Design, 225 (2023), pp. 111573 .

  5. Zhang Jun, Xiang Xuepeng, Xu Biao, Huang Shasha, Xiong Yaoxu, Ma Shihua, Fu Haijun, Ma Yi, Chen Hongyu, Wu Zhenggang, and Zhao Shijun, Rational design of high-entropy ceramics based on machine learning – A critical review, Current Opinion in Solid State and Materials Science, 27 (2023), pp. 101057 .

  6. Xiao Hao, Zhao Shuang, Liu Qingyuan, Li Yuxin, Zhao Shijun, Luo Fengping, Wang Yugang, Huang Qing, and Wang Chenxu, Point defect properties in high entropy MAX phases from first-principles calculations, Acta Materialia, 248 (2023), pp. 118783 .

  7. Li Zhongtao, Ma Shihua, Zhao Shijun, Zhang Weidong, Peng Fei, Li Qian, Yang Tao, Wu Chia-Yi, Wei Daixiu, Chou Yi-Chia, Liaw Peter K., Gao Yanfei, and Wu Zhenggang, Achieving superb strength in single-phase FCC alloys via maximizing volume misfit, Materials Today, 63 (2023), pp. 108–119 .

  8. Xu Biao, Zhang Jun, Xiong Yaoxu, Ma Shihua, Osetsky Yuri, and Zhao Shijun, Mechanism of sluggish diffusion under rough energy landscape, Cell Reports Physical Science, 4 (2023), pp. 101337 .

  9. Xu Biao, Ma Shihua, Huang Shasha, Zhang Jun, Xiong Yaoxu, Fu Haijun, Xiang Xuepeng, and Zhao Shijun, Influence of short-range order on diffusion in multiprincipal element alloys from long-time atomistic simulations, Physical Review Materials, 7 (2023), pp. 033605 .

  10. Xiong Yaoxu, Zhang Jun, Ma Shihua, Huang Shasha, Xu Biao, and Zhao Shijun, Multiscale modeling of irradiation-induced defect evolution in BCC multi principal element alloys, Journal of Alloys and Compounds, 953 (2023), pp. 170084 .

  11. Jia Chenghao, Xiang Xuepeng, Zhang Jun, He Zuyun, Gong Zhiheng, Chen Huijun, Zhang Nian, Wang Xinwei, Zhao Shijun, and Chen Yan, Shifting oxygen evolution reaction pathway via activating lattice oxygen in layered perovskite oxide, Advanced Functional Materials, 33 (2023), pp. 2301981 .

  12. He Liu, Liu Longjun, Peng Fei, Zhang Weidong, Lin Nan, Zhao Shijun, Ma Yi, and Wu Zhenggang, Host lattice and solid solution formation in an octal-cation (NbTaZrTiHfVWMo) C high entropy carbide ceramic, Journal of the European Ceramic Society, 43 (2023), pp. 5792–5801 .

  13. Zhang Jun, Wang Chaohui, Huang Shasha, Xiang Xuepeng, Xiong Yaoxu, Xu Biao, Ma Shihua, Fu Haijun, Kai Jijung, Kang Xiongwu, and Zhao Shijun, Design high-entropy electrocatalyst via interpretable deep graph attention learning, Joule, 7 (2023), pp. 1832–1851 .

  14. Li Xiaocui, Meng You, Li Wanpeng, Zhang Jun, Dang Chaoqun, Wang Heyi, Hung Shih-Wei, Fan Rong, Chen Fu-Rong, Zhao Shijun, Ho Johnny C., and Lu Yang, Multislip-enabled morphing of all-inorganic perovskites, Nature Materials, 22 (2023), pp. 1175–1181 .

2022

  1. Lin W.T., Yeli G.M., Wang G., Lin J.H., Zhao S.J., Chen D., Liu S.F., Meng F.L., Li Y.R., He F., Lu Y., and Kai J.J., He-enhanced heterogeneity of radiation-induced segregation in FeNiCoCr high-entropy alloy, Journal of Materials Science & Technology, 101 (2022), pp. 226–233 .

  2. Zhao Shijun, Application of machine learning in understanding the irradiation damage mechanism of high-entropy materials, Journal of Nuclear Materials, 559 (2022), pp. 153462 .

  3. Zhang Jun, Xu Biao, Xiong Yaoxu, Ma Shihua, Wang Zhe, Wu Zhenggang, and Zhao Shijun, Design high-entropy carbide ceramics from machine learning, npj Computational Materials, 8 (2022), pp. 5 .

  4. Zhao Shijun, Zhang Yanwen, and Weber William J, Engineering defect energy landscape of CoCrFeNi high-entropy alloys by the introduction of additional dopants, Journal of Nuclear Materials, 561 (2022), pp. 153573 .

  5. Xu Hang, Si Shuyao, Li Yipeng, Liu Xiangbing, Li Wenqing, Jiang Changzhong, Zhao Shijun, Wang Hui, and Xiao Xiangheng, The effect of Laves phase on heavy-ion radiation response of Nb-containing FeCrAl alloy for accident-tolerant fuel cladding, Fundamental Research, 2 (2022), pp. 437–446 .

  6. Wang Heyi, Wu Hong, Lin Weitong, Zhang Bin, Li Xiaocui, Zhang Yang, Fan Sufeng, Dang Chaoqun, Zhu Yingxin, Zhao Shijun, Zhou Xiaoyuan, and Lu Yang, Orientation-dependent large plasticity of single-crystalline gallium selenide, Cell Reports Physical Science, 3 (2022), pp. 100816 .

  7. Ma Shihua, Zhang Jun, Xu Biao, Xiong Yaoxu, Shao Wei, and Zhao Shijun, Chemical short-range ordering regulated dislocation cross slip in high-entropy alloys, Journal of Alloys and Compounds, 911 (2022), pp. 165144 .

  8. He Zuyun, Zhang Jun, Gong Zhiheng, Lei Hang, Zhou Deng, Zhang Nian, Mai Wenjie, Zhao Shijun, and Chen Yan, Activating lattice oxygen in NiFe-based (oxy) hydroxide for water electrolysis, Nature communications, 13 (2022), pp. 2191 .

  9. He Liu, Li Zhongtao, Zhang Jun, Peng Fei, Zhao Shijun, Chen Hongyu, Yan Hongge, Yang Tao, Chen Shuhai, Liu Bo, Ma Yi, and Wu Zhenggang, Softening Al13Fe4 intermetallic compound through Fe-site multi-principal-element doping, Scripta Materialia, 218 (2022), pp. 114811 .

  10. Xu Biao, Zhang Jun, Ma Shihua, Xiong Yaoxu, Huang Shasha, Kai JJ, and Zhao Shijun, Revealing the crucial role of rough energy landscape on self-diffusion in high-entropy alloys based on machine learning and kinetic Monte Carlo, Acta Materialia, 234 (2022), pp. 118051 .

  11. Zhao Shijun, Defect energetics and stacking fault formation in high-entropy carbide ceramics, Journal of the European Ceramic Society, 42 (2022), pp. 5290–5302 .

  12. Huang Shasha, Zhang Jun, Xiong Yaoxu, Ma Shihua, Xu Biao, and Zhao Shijun, Effects of local chemical ordering on defect evolution in NiFe concentrated solid solution alloy, Journal of Nuclear Materials, 568 (2022), pp. 153877 .

  13. Hu Lulu, Zhong Fen, Zhang Jun, Zhao Shijun, Wang Yongqiang, Cai Guangxu, Cheng Tao, Wei Guo, Jia Shuangfeng, Zhang Dongxun, Yin Ran, Chen Zhiquan, Jiang Changzhong, and Ren Feng, High hydrogen isotopes permeation resistance in (TiVAlCrZr)O multi-component metal oxide glass coating, Acta Materialia, 238 (2022), pp. 118204 .

  14. Xiao Bo, Luan Junhua, Zhao Shijun, Zhang Lijun, Chen Shiyao, Zhao Yilu, Xu Lianyong, Liu CT, Kai Ji-Jung, and Yang Tao, Achieving thermally stable nanoparticles in chemically complex alloys via controllable sluggish lattice diffusion, Nature Communications, 13 (2022), pp. 4870 .

  15. Li Q., Mo J.W., Ma S.H., Duan F.H., Zhao Y.L., Liu S.F., Liu W.H., Zhao S.J., Liu C.T., Liaw P.K., and Yang T., Defeating hydrogen-induced grain-boundary embrittlement via triggering unusual interfacial segregation in FeCrCoNi-type high-entropy alloys, Acta Materialia, 241 (2022), pp. 118410 .

  16. Xu Biao, Ma Shihua, Xiong Yaoxu, Zhang Jun, Huang Shasha, Kai Ji-Jung, and Zhao Shijun, Exploring the influence of percolation on vacancy-mediated diffusion in CoCrNi multi-principal element alloys, Materials & Design, 223 (2022), pp. 111238 .

  17. Lin Weitong, Li Yiran, de Graaf Sytze, Wang Gang, Lin Junhao, Zhang Hui, Zhao Shijun, Chen Da, Liu Shaofei, Fan Jun, Kooi Bart J., Lu Yang, Yang Tao, Yang Chin-Hua, Liu Chain Tsuan, and Kai Ji-jung, Creating two-dimensional solid helium via diamond lattice confinement, Nature Communications, 13 (2022), pp. 5990 .

2021

  1. Zhao Shijun, Zhang Yongfeng, Messina Luca, and Brandl Christian, Editorial: Computational Defect Properties, Frontiers in Materials, 8 (2021), pp. 763724 .

  2. Feng Xiaobin, Surjadi James Utama, Fan Rong, Li Xiaocui, Zhou Wenzhao, Zhao Shijun, and Lu Yang, Microalloyed medium-entropy alloy (MEA) composite nanolattices with ultrahigh toughness and cyclability, Materials Today, 42 (2021), pp. 10–16 .

  3. Zhao Shijun, Chen Da, Yeli Guma, and Kai JJ, Atomistic insight into the effects of order, disorder and their interface on defect evolution, Journal of Alloys and Compounds, 859 (2021), pp. 157770 .

  4. Liu Shaofei, Chen Da, Zhao Shijun, Lin Weitong, Meng Fanling, Zhao Yilu, Yeli Guma, He Feng, Li Yiran, Niu Huan, and Kai Ji-jung, Temperature-dependent helium induced microstructural evolution in equiatomic NiCo and NiFe concentrated solid solution alloys, Journal of Nuclear Materials, 545 (2021), pp. 152715 .

  5. Zhao Shijun, and Osetsky Yuri, Structural and chemical disorder enhance point defect diffusion and atomic transport in Ni3Al-based $\gamma$′ phase, Acta Materialia, 207 (2021), pp. 116704 .

  6. Zhao Shijun, Lattice distortion in high-entropy carbide ceramics from first-principles calculations, Journal of the American Ceramic Society, (2021), pp. .

  7. Zhao Shijun, Influence of temperature and alloying elements on the threshold displacement energies in concentrated Ni–Fe–Cr alloys, Chinese Physics B, 30 (2021), pp. 056111 .

  8. Zhao Shijun, Local ordering tendency in body-centered cubic (BCC) multi-principal element alloys, Journal of Phase Equilibria and Diffusion, 42 (2021), pp. 578–591 .

  9. Li Xi, Li Zhongtao, Wu Zhenggang, Zhao Shijun, Zhang Weidong, Bei Hongbin, and Gao Yanfei, Strengthening in Al-, Mo-or Ti-doped CoCrFeNi high entropy alloys: a parallel comparison, Journal of Materials Science & Technology, 94 (2021), pp. 264–274 .

  10. Zhao Shijun, Effects of local elemental ordering on defect-grain boundary interactions in high-entropy alloys, Journal of Alloys and Compounds, 887 (2021), pp. 161314 .

  11. Zhao Shijun, Xiong Yaoxu, Ma Shihua, Zhang Jun, Xu Biao, and Kai Ji-Jung, Defect accumulation and evolution in refractory multi-principal element alloys, Acta Materialia, 219 (2021), pp. 117233 .

  12. Zhang Jun, Ma Shihua, Xiong Yaoxu, Xu Biao, and Zhao Shijun, Elemental partitions and deformation mechanisms of L12-type multicomponent intermetallics, Acta Materialia, 219 (2021), pp. 117238 .

  13. Liu Shaofei, Lin Weitong, Chen Da, Han Bin, Zhao Shijun, He Feng, Niu Huan, and Kai Ji-jung, Effects of temperature on helium cavity evolution in single-phase concentrated solid-solution alloys, Journal of Nuclear Materials, 557 (2021), pp. 153261 .

  14. Zhao Shijun, Role of chemical disorder and local ordering on defect evolution in high-entropy alloys, Physical Review Materials, 5 (2021), pp. 103604 .