About Me

I'm a Ph.D. student in Physics, Statistics, and Data Science (PhySDS) at MIT. I'm interested in Computer Graphics, High-dimensional Data Analysis, Physics-based Simulation, Quantum Information, and Condense Matter Physics


Technical Skills

Computer Language: C++, Python, Julia, Java, Scala, Racket, Ocaml, ReasonML, MATLAB, VBA, Mathematica

Library: Jax, Numpy, Scipy, openCV, Matplotlib, Kwant, Sympy, Pytorch, Tensorflow QuTIP, Qiskit

Language:Thai, English

Education

MIT
GPA: 5.0/5.0
2022 - Ongoing
Ph.D. in Physics, Statistics, and Data Science
Brown University
GPA: 4.0/4.0
2018 - 2022
B.S. Computer Science and Physics (Magna Cum Laude)
Kent School
2017 - 2018
Post-Graduate Degree
Mahidol Wittayanusorn School
2013 - 2017
High School

Projects

Path Tracer

CS2240, Brown University

This individual project returns a photorealistic of a given scenefile of lightsource and objects with different optical properties. I implement the code from scratch on C++ and benchmark the image with different optimizations including importance sampling, stratified sampling, and multiple importance sampling. For this codebase, the code is design to priotitize physical accuracy within reasonable runtime (< 15 min per images).

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Simulating Constrainted Dynamics Using Automatic Differentiation

Phys2030, Brown University

This individual project calculate dynamical properties i.e. Lyapunov Exponent of the contrained dynamical system called astrojax. Traditionally, the contrained solver i.e. Newton-Raphson method has to run in every timestep update, making the computation cost expensive, espescially for non-linear dynamical system where the time-dynamic is sensitive to initial condition. To circumvent the computational cost, I implement the explicit constrained method which can solve the trajectory explicitely using the automatic differentiation on the constain. The code designs priotitize generalizibility to different systems to allow rapid modelling.

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Flat Self Assembly

Independent Project

Beads in a vibrating box is often used in physics class to demonstate the phase transition from "liquid" phase to "solid" phase as the particle density increases. This project goals is an attempt to develop workflow to show whether there is actually a transition from one phase to the other. I use openCV and python to track the particle motions as a function of time. Then, I implement a heutistic algorithm to calculate the entropy and energy of the system and derive the thermodynamics variable of the system at each configuration. The phase, transition is, then, defined as a discontinuity in the Thermodynamic variable. The workflow is designed to process large amount of video data .mp4 (~1TB) on a personal laptop.

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As-rigid-as-possible-transformation

CS2240, Brown University

This project is a part of class CS2240 development based on As-Rigid-As-Possible Surface Modeling. Using C++, I implement the C++ template and the minimal working code for a user-interactive deformation of 3D meshes. The user can select vertices of anchor point move them around while the mesh will deform in such a way that the anchor point is constraint and the mesh behave as-rigid-as-possible. The codebase utilize sparse matrix optimization in order to acheieve a user-interactive response time. This template designs to be flexible codebase for the student to implement the project while including the UI interactive feature build in such as vertices selection to improve student quality-of-life while trying the code.

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A Two Dimensional Molecular Dynamic with Thermal Sources

Phys1600, Brown University

This projects implement 2D molecular dynamics in python from scratch and aim to simulate the heating of the fluid and study the fluid properties such as surface tension, pair correlation function, and particle flows. This code employed heuristic method for heating for real-time evolution while remain physically realistic as observed by the particle histogram in phase space.

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Work Experiences

Visiting Researcher
Sep 2025 - June 2026
Research Assistance [PI: Prof. Pavel Volkov]
University of Connecticut
  1. Formulate the theoretical model to describe the quantum material engineering via twist.
  2. Perform numerical calculation of the transport behavior in a twisted lattice system.
Quantum Measurement Group
Feb 2023 - Ongoing
Research Assistance [PI: Prof. Mingda Li]
MIT
  1. Develop a theoretical and experimental scheme to probe quantum materials.
  2. Propose an effective model to describe collaborator’s experimental result.
  3. Present research works in national and international conferences e.g., Spain.
  4. Coauthor a textbook overviewing a quantum theory of material characterization (Ongoing).
The Low-dimensional Electronic Labs
June 2020 - Mar 2022
Research Assistance [PI: Prof. Jia Li]
Brown University
  1. Design and fabricate tunable 2D material platforms hosting exotic electronic properties.
  2. Present research works in national conferences.
  3. Implement and compare machine learning models to accelerate the of Landau fan data collection.
Interactive Computer Graphics (CSCI 2240)
Jan 2022 - May 2022
Head Teaching Assistance
Brown University
  1. Recruit and lead the TA for the course development.
  2. Implement the solution to newly developed project about as-rigid-as-possible transformation.
  3. Guide the student to identify and resolve bugs in their code.
The Emergent Behavior in Neural Network
Mar 2021 - Jan 2022
Research Assistance [PI: Prof. Andrey Gromov]
Brown University
  1. Implement a framework in PyTorch to calculate the Neural Tangent Kernel (NTK) of neural networks.
Deep Learning (CSCI 1470)
Oct 2021 - Dec 2021
Teaching Assistance
Brown University
  1. Initiate TA session restructure to improve work efficiency measured by helped student per session.
  2. Grade the homework base on implementation and performance of the students’ work.
Computer Science: Integrated Introduction (CSCI 0170)
Aug 2019 - Dec 2019
Teaching Assistance
Brown University
  1. Improve grading session efficency by implementing an code to automatically grade homework
International Youth Physicists Tournament (IYPT), Team Thailand
July 2019
Team Leader
Warzaw, Poland
  1. Lead the representative of Thailand to IYPT competition.
  2. Counsel team members regarding the theory, experiment, and computationa of the problems.
  3. Conduct a debate practice for the team members.
  4. Strategize the debate for the team during the competition.
  5. Recieve a bronze medal for the competition

Publication

  1. Siriviboon, J., & Volkov, P. (2026). 3D to 2D localization in supertwisted multilayers. arXiv preprint arXiv:2603.12329
  2. Zhang, K., Fu, C., Kelly, S., Liang, L., Kang, S. H., Jiang, J., ... & Huang, S. (2025). Thickness-dependent polaron crossover in tellurene. Science Advances, 11(2), eads4763.
  3. Fu, C., Siriviboon, P., Boonkird, A., Landry, M., Mak, K., Cheng, M., ... & Li, M. (2025). Anomalous neutron nuclear-magnetic interference spectroscopy. Materials Today Physics, 101777.
  4. Siriviboon, P., Fu, C. L., Landry, M., Okabe, R., Carrizales, D. C., Wang, Y., & Li, M. (2024). Quantum Theory of X-ray Photon Correlation Spectroscopy. arXiv preprint arXiv:2412.03635.
  5. Drucker, N., Nguyen, T., Mandal, M., Siriviboon, P., Quan, Y., Boonkird, A., ... & Li, M. (2024). Incipient nematicity from electron flat bands in a kagome metal. arXiv preprint arXiv:2401.17141.
  6. Drucker, N. C., Nguyen, T., Han, F., Siriviboon, P., Luo, X., Andrejevic, N., ... & Li, M. (2023). Topology stabilized fluctuations in a magnetic nodal semimetal. Nature Communications, 14(1), 5182.
  7. Mandal, M., Drucker, N. C., Siriviboon, P., Nguyen, T., Boonkird, A., Lamichhane, T. N., ... & Li, M. (2023). Topological superconductors from a materials perspective. Chemistry of Materials, 35(16), 6184-6200.
  8. Lin, J. X., Siriviboon, P., Scammell, H. D., Liu, S., Rhodes, D., Watanabe, K., ... & Li, J. I. A. (2022). Zero-field superconducting diode effect in small-twist-angle trilayer graphene. Nature Physics , 18(10), 1221-1227.
  9. Phum Siriviboon, Jiang-Xiazi Lin, Harley D. Scammell, Song Liu, Daniel Rhodes, K. Watanabe, T. Taniguchi, James Hone, Mathias S. Scheurer, and J. I. A. Li. Abundance of density wave phases in twisted trilayer graphene on WSe2. 2021. arXiv:2112.07127
  10. Phum Siriviboon, Chawalit Tungkaburee, Naruepon Weerawongphrom, and Chadin Kulsing. Direct equations to retention time calculation and fast simulation approach for simultaneous material selection and experimental design in comprehensive two dimensional gas chromatography. Journal of Chromatography A, 1602:425-431, 2019