职 称：副教授、硕士生导师

学 位：博士

毕业学校：中山大学

2004年9月-2009年6月中山大学理论物理博士

2000年9月-2004年6月中山大学物理学本科

2011年7月-2011年8月美国杜克大学访问学者

2006年7月-2007年2月新加坡南洋理工大学交换生

所在学科：理论物理

研究方向：第一性原理计算、场致电子发射理论、计算物理、计算材料学、半导体缺陷理论、拉曼张量

全国高等学校电磁学研究会常务理事、中国核学会计算物理分会理事

Journal of Nuclear Materials, Journal of Alloys and Compounds, International Journal of Modern Physics B, Journal of Applied Physics, Modern Physics Letters B, Physics Letters A, Physica E, ACS Applied Nano Materials, Chinese Physics B 审稿人

[45] Hao Wang#, Jinxiu Wen#,Weiliang Wang#, Ningsheng Xu, Pu Liu, Jiahao Yan, Huanjun Chen* and Shaozhi Deng*, Resonance Coupling in Heterstructures Composed of Silicon Nanosphere and Monolayer WS2: A Magnetic-Dipole-Mediated Energy Transfer Process, ACS Nano, in press.

[44] Zexiang Deng, Zhibing Li,Weiliang Wang*and Juncong She, Vibrational Properties and Raman Spectra of Pristine and Fluorinated Blue Phosphorene,蓝磷和氟化蓝磷的振动性质和拉曼光谱, Physical Chemistry Chemical Physics, 21 （2019） 1059. （Back Cover封底文章）

[43]Weiliang Wang, Weitao Yang* and Zhibing Li*, Field Electron Emission Images Far Away from A Semi-infinitely Long Emitter: A Multi-scale Simulation，长度不限的发射体远处的场发射像的多尺度模拟,Journal of Physical Chemistry C, 122 （2018） 27754. （Supplementary Journal Cover补充封面文章）

[42] Yanming Zhu, Jingyuan Li, Xu Ji, Titao Li, Mingge Jin, Xinwen Ou, Xiaomei Shen,Weiliang Wang*and Feng Huang*, Unintentionally Doped Hydrogen Removal Mechanism in Li Doped ZnO，锂掺杂氧化锌中非有意掺杂氢的去除机制, AIP Advances, 8 （2018） 105014.

[41] Zhaojun Zhang, Yanming Zhu,Weiliang Wang, Wei Zheng, Richeng Lin, Xubiao Li, Hao Zhang, Dingyong Zhong and Feng Huang*, Aqueous Solution Growth of millimeter-sized Non-Green-Luminescent Wide Bandgap Cs4PbBr6 Bulk Crystal, Crystal Growth & Design, 18 （2018） 6393.

[40] Mingge Jin, Zhibing Li, Feng Huang, Yu Xia, Xu Ji andWeiliang Wang*, Critical conditions for the formation of p-type ZnO with Li doping,锂掺杂形成p型氧化锌的临界条件, RSC Advances, 8 （2018） 30868.

[39]Zhaojun Zhang, Wei Zheng,WeiliangWang, Dingyong Zhongand Feng Huang*, Anisotropic temperature-dependence of optical phonons in layered PbI2, Journal of Raman Spectroscopy,49 （2018） 775.

[38] Wanxing Lin, Jiesen Li,Weiliang Wang, Shi-Dong Liang and Dao-Xin Yao*, Electronic Structure and Band Gap Engineering of Two-Dimensional Octagon-Nitrogene,Scientific Reports,8（2018）1674.

[37] Zhaojun Zhang,Yanming Zhu,Weiliang Wang, Wei Zheng, Richeng Linand Feng Huang*, Growth, characterization and optoelectronic applications of pure-phase large-area CsPb2Br5 flake single crystals, Journal of Materials Chemistry C,6 （2018） 446.

[36] Zexiang Deng, Huanjun Chen, Zhibing Li andWeiliang Wang*, Ballistic Electronic and Thermal Conductance of Monolayer and Bilayer Black Phosphorus,单层、双层黑磷的弹道电导、热导,Current Applied Physics, 17 （2017） 214.

[35] Jinxiu Wen, Hao Wang,Weiliang Wang, Zexiang Deng, Chao Zhuang, Yu Zhang, Fei Liu, Juncong She, Jun Chen , Huanjun Chen* , Shaozhi Deng*, and Ningsheng Xu*, Room-Temperature Strong Lightu2013Matter Interaction with Active Control in Single Plasmonic Nanorod Coupled with Two-Dimensional Atomic Crystals, Nano Letters,17 （2017） 4689.

[34] Zebo Zheng,Weiliang Wang, Teng Ma, Zexiang Deng, Yanlin Ke, Runze Zhan, Qionghui Zou, Wencai Ren, Jun Chen, Juncong She, Yu Zhang, Fei Liu, Huanjun Chen*, Shaozhi Deng*, and Ningsheng Xu, Chemically-doped graphene with improved surface plasmon characteristics: an optical near-field study, Nanoscale, 8 （2016） 16621.

[33] Lihua Li, Zexiang Deng, Lili Yu, Zhaoyong Lin,Weiliang Wang, Guowei Yang*, Amorphous transitional metal borides as substitutes for Pt cocatalysts for photocatalytic water splitting, Nano Energy, 27 （2016） 103.

[32] Jie-Sen Li,Wei-Liang Wangand Dao-Xin Yao*, Band Gap Engineering of Two-Dimensional Nitrogene, Scientific Reports, 6 （2016） 34177.

[31] Zexiang Deng, Zhibing Li andWeiliang Wang*,Electron Affinity and Ionization Potential of Two-dimensional Honeycomb Sheets: A First Principle Study，二维原子晶体的电子亲和势、电离势, Chemical Physics Letters, 637 （2015） 26.

[30] Zexiang Deng, Juncong She, Zhibing Li,Weiliang Wang*and Qiang Chen, Field Evaporation of Grounded Arsenic Doped Silicon Clusters，接地砷掺杂硅团簇的场蒸发, Surface Review and Letters, 22 （2015） 1550069.

[29] Yu Zhang, Jason Lee,Wei-Liang Wang, Dao-Xin Yao*, Two-dimensional octagon-structure monolayer of nitrogen group elements and the related nano-structures, Computational Materials Science, 110 （2015） 109.

[28]Jason Lee, Wen-Chuan Tian,Wei-Liang Wang, Dao-Xin Yao*, Two-Dimensional Pnictogen Honeycomb Lattice: Structure, On-Site Spin-Orbit Coupling and Spin Polarization, Scientific Reports, 5 （2015） 11512.

[27]Yifeng Huang, Zexiang Deng,Weiliang Wang, Chaolun Liang, Juncong She*, Shaozhi Deng and Ningsheng Xu, Field-Induced Crystalline-to-Amorphous Phase Transformation on the Si Nano-Apex and the Achieving of Highly Reliable Si Nano-Cathodes, Scientific Reports, 5 （2015） 10631

[26] Haiming Huang, Zhibing Li*, H. J. Kreuzer andWeiliang Wang*, Disintegration of graphene nanoribbons in large electrostatic fields，强电场下石墨烯纳米带的瓦解, Phys. Chem. Chem. Phys., 16 （2014） 15927.

[25] Jingkun Chen, Zhibing Li* andWeiliang Wang, Manifesting pseudo-spin polarization of graphene with field emission image, Journal of Applied Physics, 115 （2014） 053701.

[24] Yu Xia,Weiliang Wang, Zhibing Li* and H. Juergen Kreuzer, Adsorption and desorption of hydrogen on graphene with dimer conversion, Surf. Sci., 617 （2013） 131.

[23] Chunshan He,Weiliang Wang*, Potential barrier and band structure of closed edge graphene，闭合边缘石墨烯的势垒和能带结构, J. Appl. Phys., 114 （2013） 074305.

[22] Haiming Huang, Zhibing Li, andWeiliang Wang*, Electronic and magnetic properties of oxygen patterned graphene superlattice，氧掺杂石墨烯超晶格的电、磁性质, J. Appl. Phys., 112 （2012） 114331.

[21]Weiliang Wangand Zhibing Li*, Graphene with the secondary amine-terminated zigzag edge as a line electron emitter，仲胺中断的石墨烯锯齿型边缘作为线电子发射源, Applied Physics A, 109 （2012） 353.

[20] Chunshan He, Zhibing Li andWeiliang Wang*, Work function of boron carbie: A DFT calculation，碳化硼的功函数, Surface Review and Letters, 19 （2012） 1250040.

[19] Yuan Huang,Weiliang Wang, Juncong She*, Zhibing Li, Shaozhi Deng, Correlation between carbonu2013oxygen atomic ratio and field emission performance of few-layer reduced graphite oxide，少层还原氧化石墨烯的氧含量与其场发射性能的关系, Carbon, 50 （2012） 2657.

[18] Haiming Huang, Zhibing Li, Juncong She andWeiliang Wang*, Oxygen density dependent band gap of reduced graphene oxide，还原氧化石墨烯的带隙随氧含量的变化, J. Appl. Phys., 111 （2012） 054317.

[17]W. Wang, J. Shao, Z. Li*, The exchange-correlation potential correction to the vacuum potential barrier of graphene edge，交换关联势对石墨烯真空势垒的修正, Chemical Physics Letters 522 （2012） 83.

[16]W. L. Wangand Z. B. Li*, Potential barrier of graphene edges，石墨烯边缘的势垒, J. Appl. Phys. 109 （2011） 114308.

[15] X. Z. Qin,W. L. Wangand Z. B. Li*, Electric potential of a metallic nanowall between cathode and anode planes，阴阳极间金属纳米墙的电势, J. Vac. Sci. Technol. B, 29 （2011） 031802.

[14]W. L. Wang, X. Z. Qin, N. S. Xu and Z. B. Li*, Field electron emission characteristic of graphene，石墨烯的场致电子发射特性, Journal of Applied Physics, 109 （2011） 044304.

[13] X. Z. Qin,W. L. Wang, N. S. Xu, Z. B. Li* and R. G. Forbes, Analytical treatment of cold field electron emission from a nanowall emitter, including quantum confinement effects, Proceedings of the Royal Society a-Mathematical Physical and Engineering Sciences, 467 （2011） 1029.

[12] H. M. Huang, Z. B. Li andW. L. Wang*, Image potential of C60: A density functial theory calculation，C60的镜像势, J. Vac. Sci. Technol. B, 29 （2011） 021802.

[11]W. L. Wang, Y. Xia, N. S. Xu and Z. B. Li*, Spontaneous Breaking of Rotation Symmetry in the Edge States of Zigzag Carbon Nanotubes，锯齿型碳纳米管边缘态旋转对称性的自发破缺, Journal of Physical Chemistry C, 113 （2009） 17313-17320.

[10]Weiliang Wang, Ningsheng Xu and Zhibing Li*, Field-dependent electron emission patterns from individual SWCNTs simulated with a multi-scale algorithm，用多尺度算法模拟单根单壁碳纳米管场致电子发射像随电场的变化, Ultramicroscopy, 109 （2009） 1295.

[9] C. S. He,W. L. Wang, S. Z. Deng, N. S. Xu, Z. B. Li*, G. H. Chen and J. Peng, Anode Distance Effect on Field Electron Emission from Carbon Nanotubes: A Molecular/Quantum Mechanical Simulation, Journal of Physical Chemistry A, 113 （2009） 7048.

[8] C. S. He,W. L. Wang, G. H. Chen and Z. B. Li*, Image potential effect on field emission from arrays of carbon nanotubes, Acta Physica Sinica, 58 （2009） S241.

[7]W. L. Wang, J. Peng, G. H. Chen, S. Z. Deng, N. S. Xu and Z. B. Li*, Image potentials of single-walled carbon nanotubes in the field emission condition，单壁碳纳米管在场致电子发射时的镜像势, Journal of Applied Physics, 104 （2008） 034306.

[6] J. Peng, Z. B. Li*, C. S. He, G. H. Chen,W. L. Wang, S. Z. Deng, N. S. Xu, X. Zheng, G. H. Chen, C. J. Edgcombe and R. G. Forbes, The roles of apex dipoles and field penetration in the physics of charged, field emitting, single-walled carbon nanotubes, Journal of Applied Physics, 104 （2008） 014310.

[5] G. H. Chen,W. L. Wang, J. Peng, C. S. He, S. Z. Deng, N. S. Xu and Z. B. Li*, Screening effects on field emission from arrays of （5,5） carbon nanotubes: Quantum mechanical simulations, Physical Review B, 76 （2007） 195412.

[4] G. H. Chen, Z. B. Li*, J. Peng, C. S. He,W. L. Wang, S. Z. Deng, N. S. Xu, C. Y. Wang, S. Y. Wang, X. Zheng, G. H. Chen and T. Yu, Atomic decoration for improving the efficiency of field electron emission of carbon nanotubes, Journal of Physical Chemistry C, 111 （2007） 4939-4945.

[3] Q. L. Bao, S. J. Bao, C. M. Li, X. Qi, C. T. Pan, J. F. Zang,W. L. Wangand D. Y. Tang, Lithium insertion in channel-structured beta-AgVO: In situ Raman study and computer simulation, Chemistry of Materials, 19 （2007） 5965.

[2] Zhi-Bing Li* andWei-Liang Wang, Analytic solution of charge density of single wall carbon nanotube under conditions of field electron emission，单壁碳纳米管在场致电子发射时电荷密度的解析解, Chinese Physics Letters, 23 （2006） 1616.

[1] S. Z. Deng, Z. B. Li,W. L. Wang, N. S. Xu*, Zhou Jun, X. G. Zheng, H. T. Xu, Chen Jun and J. C. She, Field emission study of SiC nanowires/nanorods directly grown on SiC ceramic substrate, Applied Physics Letters, 89 （2006） 23118.