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    Prof. Dr. Zhang, Hong

    Release time:2017.12.14

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    Prof. Dr.  Zhang, Hong is the dean of College of Physical Science and Technology, Sichuan University, now she is a full professor in physics department of Sichuan University. She received her PhD from Sichuan   University, China. Her research area is Condensed Matter Theory and now the research activity is focused on the interaction between short-pulse laser and surfaces (including nanotubes and graphene); hydrogen storage. Her research highlight is targeting high-melting low-dimensional material such as graphene and carbon nanotubes, these materials are experimentally studied and because of their high melting temperatures, heat treatment that control defects, impurities, even entire shape of these material are difficult that make these materials hard to be used for many applications. She is searching non-thermal way to control these materials with use of femtosecond laser.

         Prof. Hong Zhang has published over 200 publications in PNAS; Physical Review Letters;   Physical Review B; Applied Physics Letters;  Nanoscale and other scientific journals.


    Contact information:

    Tel: 86 28 85410238; 86 28 85400158

    E-mail: hongzhang@scu.edu.cn


    Main Research Interests:

    1.  Interaction between short-pulse laser and surfaces (including nanotubes and graphene)

    2.  Theoretical study of nano-structure and multiscale modeling

    3.  Structure and dynamic properties of surfaces and interfaces

    Selected Publications (*presents corresponding author)

    1. Hong Zhang,  et al,  Physical Review Letters, 109265505, 2012

    Ab-initio simulation of helium ion microscopy images: The case of suspended grapheme

    2. Y. Miyamoto,  Hong Zhang*,  et al,  Physical Review Letters, 114, 116102, 2015 Modifying the interlayer interaction in layered materials with an intense infrared laser

    3. Y. Miyamoto*, Hong Zhang*, A. Rubio*, Physical Review Letters, 105, 248301, 2010

    Chemical reactions in HCl molecule embedded nanotube induced by ultrafast laser pulses

    4. Y. Miyamoto, Hong Zhang*, D. Tomanek,  Physical Review Letters, 104, 208302, 2010

    Photoexfoliation of graphene from graphite

    5. Y. Miyamoto, Hong Zhang, A. Rubio, PNAS, 109, 8861, 2012

    Pulse-induces non-equlibrium dynamics of acetylene inside carbon nanotube

    6. Hong Zhang*, et al, Nanoscale, 719012, 2015

    Optical Field Terahertz Amplitude Modulation by Graphene Nanoribbons

    7. Hong Zhang, et al, Physical Review B (Rapid Communication), 85, 201409, 2012

    Preferential Dehydrogenation from One-side of Graphane by laser Pulse

    8. Hong Zhang, et al, Physical Review B 85, 033402, 2012

    Graphene production by laser shot on graphene oxide: An ab initio prediction

    9. Hong Zhang, et al, Physical Review B 78, 045436, 2008

    Stability, structure, electronic properties of chemisorbed oxygen and thin surface oxides on Ir

    10. Hong Zhang*, et al, Applied Physics Letters, in press, 2018

    Detection of coherent electron dynamics in benzene and polycyclic benzene by two

    anti-phase pulses:An ab initio study

    11. Hong Zhang, et al, Applied Physics Letters, 95, 053109, 2009

    Modulation of alternating electric field inside photoexcited carbon nanotubes

    12. Y.Miyamoto, T. M, A. Rubio, Hong Zhang*, Applied Physics Letters, 104, 201107, 2014,

    Photo-induced hardening of the weak bonds of nobel gas dimmer.

    13. HF Yin, Hong Zhang*, Applied Physics Letters, 101, 061906, 2012

    Quantum mechanical study of plasmonic coupling in sodium nanoring dimmers

    14. W Wang*, Hong Zhang, et al, Applied Physics Letters, 110, 151101, 2017, Field-level characterization of the optical response in J-aggregate/metal hybrid nanostructures by chirp-compensated spectral interferometry

    15. Y Miyamoto*, Hong Zhang*, et al, Physical Review B, 96, 115451, 2017

    Modeling of laser-pulse induced water decomposition on two-dimensional materials by simulations based on the time-dependent density functional theory

    16. Jiahe Lin, Hong Zhang*, et al, Physical Review B, 94,195404, 2016,

    Novel two-dimensional wide-band-gap nitride semiconductors: single-layer 1T-XN2

    17. XQ Shu, Hong Zhang*, et al, Physical Review B, 93, 195424, 2016

    Tunable plasmons in few-layer nitrogen-doped graphene nanostructures: A time-dependent density functional theory study

    18. JH Lin, Hong Zhang*, et al, Physical Review B in press, 2017

    Single-layer group IV-V and group V-IV-III-VI semiconductors: structural stability, electronic structures, optical properties and photocatalysis

    19. GQ Yan, Hong Zhang, et al, Physical Review B 93, 214302, 2016

    Different effects of electronic excitation on metals and semiconductors

    20. Y. Miyamoto, Hong ZhangPhysical Review B 77, 165123, 2008

    Testing the numerical stability of time-dependent density functional simulations using the Suzuki-Trotter formula

    21. Y. Miyamoto, Hong Zhang, Physical Review B(Rapid Comm.), 77, 161402, 2008

    Electronic Excitation In an Ar Ion Transversing A Graphene Sheet

    22. Y. Miyamoto, Hong Zhang,  Physical Review B 77, 045433, 2008, Calculating interaction between a highly charged high-speed ion and a solid surface

    23. Hong Zhanget al, Acta Physica Sini. (invited paper), 64, 057300, 2015, Surface plasmon research progress based on time-dependent density functional theory

    24. Hong Zhang, W.X. Li, J. Phys. Chem. C 113, 21361, 2009

    First-principles investigations on hydrogen adsorption and potential energy on Ir(111) surface

    25. Hong Zhang, et alApplied Surface Science, 254, 7655, 2008

    Al Adsorption on Ir(111) at a Quarter Monolayer Coverage: A First Principles Study

    26. Hong Zhang*, HF Yin, Inter. J. Quan. Chem., 113 2200, 2013

    Plasmon resonances and plasmon-induced charge transport in linear atomic chains

    27. Hong Zhang, XL. Cheng, S. Chiesa, Inter. J. Quan. Chem., 111, 4452, 2011

    QMC calculations of bond dissociation energies for some nitro and amino molecules

    28. Hong Zhang, et al, Front. Phys (review paper). 6, 231, 2011

    DFT study of dihydrogen interactions with lithium containing organic complexes

    29. Hong Zhang, et al, Inter. J. Quan. Chem., 109, 720, 2009

    First-principles study on structure and electronic properties of Nitrimino nitroimidazolidine

    30. Hong Zhang, F. Cheung, Inter. J. Quan. Chem., 109, 1547, 2009

    Band Gaps and the Possible Effect on Some Nitro Aromatic Explosive Materials

    31. Hong Zhang, F. Chen, et al, J. Mole. Struc.: THEOCHEM 857, 33, 2008

    Structural and Electronic properties of 2,4,6-trinitrophenol

    32. Hong Zhang*, et al, Chinese Physics Letters , 25, 552, 2008

    Structural, electronic properties and Chemical Bonding of Li4CaB2O6 under high pressure

    33. Hong Zhang*, et al, Physica Status Solidi (b), 24,37, 2008

    DFT studies on thermodynamic properties of Na2Ti3O7 under high temperature and pressure

    34. Hong Zhang*, et al, Chinese Physics, 15, 0428, 2006

    Molecular dynamics study of the ternary compound Li3AlB2O6

    35. Hong Zhang*, et al, Chinese Physics Letters, 2003

    Analysis of Charge state Distribution

    36. Kaibiao Zhang, Hong Zhang*, J. Phys. Chem. C , 118, 635, 2014, Plasmon Coupling in Gold Nanotube Assemblies: Insight from Time-Dependent  DFT  Calculation

    37. JH Guo, Hong Zhang*,  J. Phys. Chem. C, 116, 15908, 2012, Multiscale Study of Hydrogen Adsorption, Diffusion and Desorption on Li-Doped Phthalocyanine Covalent Organic Frameworks

    38. KB Zhang, Hong Zhang*, Phys. Chem. Chem. Phys, 17, 12051, 2015

    Coherent Resonance of Quantum Plasmons in Graphene-Gold Cluster Hybrid System

    39. SY, Zhang, Hong Zhang*, Applied Surface Science, 289, 81, 2014

    The inter-adsorbate interaction mediated by Shockley-type surface electrons and dipole moment: Cs and Ba atoms absorbed on Ag(111) films.

    40. P.P Liu, Hong Zhang*, Xinlu Cheng, Applied Surface Science, 371, 44-49, 2016, External electric field: an effective way to prevent aggregation of Mg atoms on γ-graphyne for high hydrogen storage capacity