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Yang Yang

  • About
    • Department: Physics
    • Gender: male
    • Post:
    • Graduate School: ECNU
    • Degree: Ph.D.
    • Academic Credentials:
    • Tel: 18964019833
    • Email: yyang@phy.ecnu.edu.cn
    • Office: Rm315, Physics Building
    • Address:
    • PostCode: 200241
    • Fax:

    WorkExperience

    (1) 2021-2 to present,   Professor and Academic Committee Member of the School of Physics and Electronic Science, ECNU

    (2) 2017-3 to present,   Director of the Condensed Matter Physics Institute, ECNU

    (3) 2014-9 to 2021-1,    Assitant Professor, ECNU

    (4) 2010-7 to 2011-1,    Research assititant, Fudan University

    (5) 2013-8 to 2014-8,    PostDoc, UC Berkeley

    (6) 2011-1 to 2013-8,    PostDoc, University of Kansas


    Education


    (1) 2008-1 to 2009-1, UC Davis, Material Science Engineering, Ph.D.(Joint)

    (2) 2004-9 to 2010-7, ECNU, Condensed Matter Physics, Ph.D.

    (3) 2000-9 to 2004-7, ECNU, Physics, Bachelor


    Resume

    Dr. Yang received his Ph.D. from the East China Normal University in 2010. He subsequently joined Prof. Xingao Gong’s research group at Fudan University, as a research assistant. From 2011 to 2013, he worked with Prof. Brian Laird at the University of Kansas as a postdoc. From 2013 to 2014, he worked with Prof. Mark Asta as a postdoc at the University of California, Berkeley. He joined the School of Physics and Material Science at East China Normal University as a Zijiang youth scholar faculty. Since March 2016, he has been serving as director of the institute of condensed matter physics at the School of Physics and Electronic Science. Dr. Yang’s research focuses on employing state-of-the-art theoretical and simulation techniques to develop the modern theory for the liquid phase interface thermodynamics and kinetics. Dr. Yang was awarded the Excellent Doctoral Dissertation Award of Shanghai City, and the 2018 recipient of the East China Normal University Natural Science Youth Award.


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    Other Appointments

    Research Fields

    My research group's long-term goal is the precise control of liquid surfaces and solid-liquid interfaces. We focus on the control of solidification processes in advanced metallurgy manufacturing/processing. We conduct theoretical and computational research on liquid interfaces' thermodynamic and kinetic properties. Our research combines advanced atomistic simulation techniques, computational analysis, and theoretical formalism to explore phenomena in different material systems; my group is committed to developing modern thermodynamics, kinetics, and statistical mechanics theories on liquid interfaces. 


    Current research focuses on the following two directions:    

    [I] Quantitative thermodynamic and kinetic theories of liquid surface and interface systems. Develop quantitative theories of solidification kinetics.      

    [II] Computer simulation technology and machine learning AI algorithm technology will be used to study the collective dynamic properties of traditional and active liquid phase substances.      


    Based on the research work accumulation in the above two directions, construct characteristic and advantageous technologies to solve practical significant scientific research problems (such as the problem of reducing surface roughness in ultrafast laser processing and manufacturing, the issue of nucleation and crystal selection in the precision casting of single crystal turbofan blades, and the problem of liquid metal embrittlement failure of reactor shells).  

    Enrollment and Training

    Course

    Thermodynamics and Statistical Mechanics


    Seminar on Thermodynamics and Statistical Mechanics


    Introduction to Soft Condensed Matter Physics (for graduate students).

    Scientific

    Academic Achievements

    publication with five years


    1. The intrinsic stress field for liquid surfaces  Physical Review Letters2024(独立通讯)

    2. A quantitative theory and atomistic simulation study on the soft-sphere crystal-melt interfacial properties: I. kinetic coefficients   The Journal of Chemical Physics, 2024(共同通讯)

    3. Research on atomistic simulation of the coexistence of multiple interfacial states at heterogeneous solid-liquid interface Journal of East China Normal University (Natural Science)2024(独立通讯)

    4. Wetting behavior of Cu droplets on Fe surfaces: insights from molecular dynamics simulations Computational Materials Science, 2024(合作)

    5. A comparative computational study of the solidification kinetic coefficients for the soft-sphere bcc-melt and the fcc-melt interfaces Crystal2024 (独立通讯)

    6. Atomistic insights into sluggish crystal growth in CoNi-containing multi-principal element alloys Journal of Materials Research and Technology, 2024 (共同通讯)

    7. Engulfment and pushing of cylindrical liquid nano-inclusion by advancing crystal/melt interface: an atomistic simulation study Nanomaterials, 2024 (共同通讯)

    8. Dynamic surface tension of the pure liquid-vapor interface subjected to the cyclic loads  The Journal of Chemical Physics2023 (独立通讯)

    9. Signatures of quantum criticality in the complex inverse temperature plane  Chinese Physics Letters2023(合作)

    10. Atomistic insights into sluggish crystal growth in an undercooled CoNiCrFe multi-principal element alloy Journal of Alloys and Compounds, 2023 (共同通讯)

    11. Exploring femtosecond laser ablation by snapshot ultrafast imaging and molecular dynamics simulation Ultrafast Science, 2022(共同通讯)

    12. Atomistic characterization of the SiO2 high-density liquid/low-density liquid interface The Journal of Chemical Physics, 2022(共同通讯)

    13. Local collective dynamics at equilibrium BCC crystal-melt interfaces The Journal of Chemical Physics, 2022(独立通讯)

    14. Solidification of ternary melts with a two-phase layer Journal of Physics: Condensed Matter, 2022(合作)

    15. Ultrafast modulation of the molten metal surface tension under femtosecond laser irradiation Chinese Physics Letters, 2022(共同通讯)

    16. Nucleation and growth of an ensemble of crystals during the intermediate stage of a phase transition in metastable liquids Crystals, 2022(合作)

    17. Understanding the kinetic anisotropy of the soft-sphere bcc crystal-melt interfaces Journal of Physics: Condensed Matter, 2022(独立通讯)

    18. Atomistic simulation study of the fcc and bcc crystal-melt interface stresses Surfaces and Interfaces, 2022(独立通讯) 

    19. Atomistic characterization of the dispersed liquid droplet in immiscible Al-Pb alloy Journal of Materials Research and Technology, 2021(独立通讯)

    20. Interface migration in aluminum bicrystals via premelting Surfaces and Interfaces, 2021(独立通讯)

    21. Disjoining potential of premelting liquid film in binary alloy heterogeneous solid-liquid interface Shanghai Metals, 2021(共同通讯)

    22. Crystal-melt interface kinetics and the capillary wave dynamics of the monolayer confined ice-water coexistence lines Acta Chimica Sinica, 2021(独立通讯)

    23. Kinetics of crystallization and orientational ordering in dipolar particle systems Crystal Growth & Design, 2020(独立通讯)

    24. Study of the dielectric property of monolayer confined water using a polarizable model Acta Chimica Sinica, 2020(独立通讯)

    25. Element interactions and local structure in molten NiRe and NiAlRe alloys: implications for the aggregation and partition of Re Acta Materialia, 2020(合作)

    26. A constant potential molecular dynamics simulation study of the atomic-scale structure of water surfaces near electrodes Chinese Journal of Chemistry, 2019(独立通讯)

    27. Grain boundary premelting of monolayer ices in 2D nano-channels Molecular Physics, 2019(独立通讯)

    28. A molecular dynamics simulation study of the effect of external electric field on the water surface potential Acta Chimica Sinica, 2019(独立通讯)


    Original pdf files of the papers listed above (corresponding author/ first author)

     

     

      


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