Hengyue Xu
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Portrait of Hengyue Xu

Hengyue Xu

Ph.D. Student in Chemistry

Tsinghua University · University of Melbourne · Curtin University

AI-Driven Quantum Chemistry for Energy Systems

Quantum-to-Materials Design of Energy Systems Using AI, DFT, and Molecular Dynamics.

Building AI-assisted quantum chemistry workflows that connect molecular electronic structure, reaction dynamics, and materials behavior across energy systems.

AI for Chemistry Quantum Chemistry Molecular Energy Systems DFT + Molecular Dynamics
80+ Publications
30+ First-author papers
11 ESI Highly Cited Papers
100+ Journal reviews
2021

B.Sc. in Chemistry, Nanjing Tech University

2024

M.Sc. in Chemistry, Tsinghua University

Now

Ph.D. student, Department of Chemistry, Tsinghua University

Visiting

Visiting Research Associate at Curtin University; University Guest (Academic) in Chemical Engineering at the University of Melbourne

Citation Geography

Institutional geography of citing papers.

Countries and regions are aggregated from the institutions of citing works; the ring network highlights frequent regions and cross-region co-occurrence.

Global overview

Citation Network

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Inspect countries, cross-region co-occurrence, and representative citing institutions.

Active Region

Global Overview

Citation distribution aggregated by the country or region of citing works' author institutions.

Top citing regions: China, Australia, South Korea, United States, European Union, Germany

Hovered Node

China

Citation geography node aggregated from citing works' author institutions.

East Asia · Citation distribution node

    Citations 3,302 Syncing Scholar
    H-index 30
    Citing Scholars 1,319
    Institutions 1,180
    Countries / Regions 42
    Visible Nodes 15

    AI + Quantum Chemistry

    Computable descriptors connect quantum mechanisms with molecular energy-system design.

    AI-Guided Descriptors

    Machine-learning-ready descriptors organize quantum chemical outputs into interpretable design rules for reactive energy materials.

    Quantum-to-Dynamics Links

    DFT, AIMD, and enhanced sampling connect electronic structure with interfacial pathways, barriers, and molecular motion.

    Molecular Energy Systems

    Metal-sulfur chemistry, electrolytes, catalytic interfaces, and molecular additives are treated as coupled energy systems.

    Research Tools I Build

    Open-source tools for AI-assisted quantum chemistry and molecular dynamics.

    MOTUS and IQCAP turn simulation and electronic-structure workflows into reproducible analysis, visualization, and design pipelines.

    News

    Recent papers, journal covers, and research milestones.

    Recent highlights from journal covers, paper selections, and research milestones.

    Selected Publications

    Representative papers link quantum chemistry, AI-ready descriptors, and molecular energy reactions.

    Selected studies cover DFT/AIMD mechanisms, interfacial redox chemistry, sulfur-conversion kinetics, and descriptor-driven energy-system design.

    Paper Collaboration Network

    Collaborating institutions across selected papers.

    Built from OpenAlex authorship institution metadata for selected DOI records. Nodes represent universities or institutes, while links mark co-appearance in the same publication.

    Active Node

    Tsinghua University

    Hover or click an institution node to inspect authors, papers, and source metadata.

    OpenAlex authorship institution data

    Live Scholarly Pulse

    Scholar metrics track an AI-assisted quantum chemistry program for molecular energy systems.

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    Quantum Mechanisms

    Electronic structure, orbital interactions, and reaction pathways define the microscopic design space.

    AI-Ready Descriptors

    Computable descriptors translate DFT and molecular dynamics outputs into learnable structure-property rules.

    Energy-System Outputs

    Selectivity, barriers, transport, and interfacial stability provide chemically interpretable performance outputs.

    Scientific Collaboration

    Open to collaboration on mechanistic electrochemistry and catalytic interfaces.

    Email

    xuhy24@mails.tsinghua.edu.cn

    xuhy21@tsinghua.org.cn

    Current Base

    Tsinghua University

    Chemistry

    Research Visits

    University of Melbourne

    Curtin University

    Shenzhen Bay Laboratory