Portrait of Meitang Peng 彭美堂

Researcher profile

Meitang Peng 彭美堂

25 PhD Student in Biomedical Engineering

South China University of Technology

Connecting molecular simulation, first-principles calculations, and machine learning for biomolecular and materials discovery.

  • Molecular simulation
  • First-principles calculation
  • Machine learning
  • Biomaterials and drug discovery

About Meitang Peng 彭美堂

MT is a PhD student in Biomedical Engineering at the Xu Group, having joined as a master’s student in 2023 and transferred to the PhD programme in 2025. His research focuses on the integration of machine learning and quantum computing for the discovery of biomaterials, drug discovery, and controlled carrier delivery. MT has a keen interest in automated experimental technologies, dedicating his efforts to optimizing bioengineering processes and material properties through innovative computational approaches.

Questions I care about

  1. How can physical and chemical calculations provide learning signals that remain useful beyond a single dataset?

    I am interested in connecting simulation-derived information with models that can be evaluated across molecular and materials questions.

  2. How can molecular simulation and machine learning be combined so that predictions are easier to interrogate scientifically?

    The goal is not only predictive performance, but a clearer account of which interactions and assumptions drive a result.

  3. Where can automation shorten the path from a candidate idea to usable evidence?

    This includes more reproducible calculations, model comparisons, and handoffs between computational and experimental work.

What I am working on

Active direction

Simulation-informed molecular and material discovery

Combining molecular simulation, first-principles calculations, and learning-based models for biomaterial and drug-discovery questions.

My role: Computational modelling, analysis design, and comparison of candidate representations.

Exploratory

AI-assisted carrier and molecular design

Exploring computational approaches for reasoning about candidate materials, molecular properties, and controlled-delivery systems.

My role: Linking physical calculations with machine-learning workflows and interpretable comparisons.

What I bring to a project

Methods

  • Molecular dynamics simulation
  • First-principles calculation
  • Machine-learning model development

Scientific domains

  • Biomaterials
  • Drug discovery
  • Controlled carrier delivery

I can contribute

  • Designing simulation-informed computational studies
  • Developing learning-space and representation strategies for scientific discovery
  • Connecting computational evidence with experimental observations for mechanistic interpretation

Principles I work by

Trust the Process

Accept uncertainty and unexpected turns, and try to make the best of what each stage brings.

Make Things Simple

Reduce complexity to its essential structure before adding unnecessary sophistication.

格物致知 · Learn Through Inquiry

Seek understanding by examining things carefully, questioning assumptions, and grounding conclusions in evidence.

Selected research outputs

  1. 2026

    An electron-density point-cloud framework for robust protein-ligand interaction prediction

    Nat. Commun., 17(1), 7424 (2026)

  2. 2025

    Dynamic Reaction Path Descriptors: Integrating Mechanistic Insights for Enhanced AI-Driven Reaction Prediction

    ChemRxiv, preprint (2025)

  3. 2025

    Tuning Second Near-Infrared Fluorescence Activation by Regulating the Excited-State Charge Transfer Dynamics Change Ratio

    J. Am. Chem. Soc., 147(20), 17330-17341 (2025)

Where we might work together

I welcome conversations that connect molecular simulation or first-principles calculations with machine-learning methods for biomolecular and materials discovery.

I can contribute

  • Designing simulation-informed computational studies
  • Developing learning-space and representation strategies for scientific discovery
  • Connecting computational evidence with experimental observations for mechanistic interpretation

I am looking for

  • Experimental perspectives that can test computational hypotheses
  • Complementary methods for molecular representation and scientific learning

Possible formats

  • Joint computational–experimental studies
  • Method benchmarking and reproducibility work
  • Short research or internship conversations
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