Resume / CV

Click here to download my resumé (last updated August 2026).

Click here to download my CV in PDF format, or read the web version below.

Experience

2021–Present PhD Researcher
  • Created and maintain QuantumGateDesign.jl, an open-source Julia package (CI tests, hosted docs) for fast and accurate pulse-level optimal control of superconducting transmon qubits.
  • Demonstrated 3–13× faster CNOT gate design than Störmer-Verlet at 10−3–10−5 infidelity targets, using the high-order Hermite methods and discrete adjoints of QuantumGateDesign.jl (Journal of Computational Physics, 2026).
  • Derived Filon methods that simulate highly oscillatory quantum systems 6× faster than same-order Hermite methods, with no rotating-wave approximation (arXiv:2607.13580; submitted to SIAM Journal on Scientific Computing).
  • Built a transfer-learning pipeline, from dataset generation through model training, that retunes control pulses to preserve gate fidelity on qubits with shifted transition frequencies.
  • Currently designing neural-network surrogate models for controlled qubit dynamics using learned Magnus expansions, enabling state-vector simulation with large time steps at low computational cost.
2023, 2025 Long Workshop Participant
  • Collaborated with a diverse group of mathematicians, physicists, and computer scientists from academia and industry on problems in quantum computing (2023) and non-commutative optimal transport (2025).
  • Organized a working group exploring optimal-transport-inspired objective functions for quantum control.
2024 Research Project Manager
  • Implemented GPU-accelerated algorithms for classical parameter-setting of the Quantum Approximate Optimization Algorithm (QAOA), in collaboration with Mitsubishi Electric.
  • Led a five-member U.S.–Japan team that replaced a state-of-the-art parameter-setting method with a low-cost analytical proxy of comparable accuracy.
2023 Visiting Scholar
  • Wrote CUDA and Thrust code to accelerate simulation of runaway electrons in tokamak fusion reactors.
  • Visualized electron dynamics using Poincaré plots to identify computationally demanding reactor regions.
2022 Computing Student Intern
  • Calibrated gate pulses and implemented zero-noise extrapolation on real superconducting qubit hardware.
  • Measured hardware coherence and accuracy via Ramsey echo and randomized benchmarking experiments.
  • Developed high-order compositional integrators for quantum state-vector simulation, which reduced the computational cost of high-accuracy 2-qubit simulations by 10× (Lawrence Livermore National Laboratory Technical Report, 2022).
2020–2021 Post-Baccalaureate Research Associate
  • Member of the FEX-Hub project for development of hardware to manage the flow of trigger data from the ATLAS detector of the Large Hadron Collider.
  • Wrote object-oriented Python scripts to conduct Integrated Bit Error Ratio Tests (IBERT) of multi-gigabit transceivers on FPGA and generate eye diagrams to analyze accuracy when transmitting at high bandwidths.
  • Added new features to FPGA firmware using VHDL in Vivado Design Suite.
2019 Summer Research Associate
  • Analyzed C firmware of a microcontroller for ATCA compliance as part of upgrades to the Level 1 Calorimeter Trigger of the Large Hadron Collider.
2016–2020 Undergraduate Research Associate
  • Created an interactive Python GUI to run and display perfSONAR network measurement tests, manage Ethernet switch stress tests, and generate automated reports.
  • Organized and configured Linux test nodes for use in network stress tests.

Education

2021–Present
Ph.D. in Computational Mathematics, Science, & Engineering
Expected graduation October 2026.
2016–2020
Dual Bachelor of Science in Advanced Mathematics and Physics
Graduated with High Honors, Member of Honors College.

Awards

2022–2027
National Science Foundation Graduate Research Fellowship ($159,000)
2021
Michigan State University Rasmussen Fellowship Award ($5,000)
2019
McCartney Endowed Educational Enrichment Fund ($500)
2018
Lawrence W. Hantel Endowed Fellowship Fund ($2,300)
2018
Paul and Wilma Dressel Endowed Scholarship for Mathematics ($1,250)

Publications

Published Articles

2026 Spencer Lee, Daniel Appelö. High-order Hermite optimization: Fast and exact gradient computation in open-loop quantum optimal control using a discrete adjoint approach. Journal of Computational Physics, 552, 114697. [link]

Submitted Articles

2026 Spencer Lee, Daniel Appelö. Filon Methods for Highly Oscillatory Controlled Quantum Systems. arXiv:2607.13580, submitted to the SIAM Journal on Scientific Computing. [link]

Technical Reports and White Papers

2025 Non-commutative Optimal Transport. Institute for Pure and Applied Mathematics (IPAM), UCLA. White paper. [link]
2024 Rie Fujii, Shin-ichiro Kakuta, Phillip Kerger, Nadav Kohen, Spencer Lee, Kanon Sakurai. G-RIPS Mitsubishi-B Project: Final Report. Tohoku University Advanced Institute for Materials Research (AIMR). Technical Report. [link]
2024 Mathematical and Computational Challenges in Quantum Computing. Institute for Pure and Applied Mathematics (IPAM), UCLA. White paper. [link]
2022 Spencer Lee, Stefanie Guenther, N. Anders Petersson. Compositional Methods for Schrödinger's Equation with Application to Optimal Control. Lawrence Livermore National Laboratory (LLNL). Technical Report. [link]
2018 Dan Edmunds, Yuri Ermoline, Brian Ferguson, Wade Fisher, Philippe Laurens, Spencer Lee, Pawel Plucinski. ATLAS Level-1 Calorimeter Trigger Upgrade, FEX System Switch Module (FEX Hub) Prototype. Michigan State University. Technical Specification.
2018 Dan Edmunds, Yuri Ermoline, Brian Ferguson, Wade Fisher, Philippe Laurens, Spencer Lee, Pawel Plucinski. ATLAS Level-1 Calorimeter Trigger Update, HUB Firmware Specification. Michigan State University. Technical Specification.

Talks

2025 HOHO - High-Order Hermite Optimization for Quantum Optimal Control. Talk at CMSE 10th Anniversary Workshop & 5th Data Science Student Conference. Michigan State University, East Lansing, Michigan.
2025 Building Blocks of Quantum Computing: QuantumGateDesign.jl - Quantum Optimal Control Tutorial. Talk at Society for Industrial and Applied Mathematics (SIAM) Annual Meeting 2025. Montreal, Quebec.
2025 High-Order Hermite Optimization for Quantum Gate Design. Talk at Society for Industrial and Applied Mathematics (SIAM) Annual Meeting 2025. Montreal, Quebec.
2025 Quantum Optimal Control: How It's Done and Why You Should Use My Software. Talk at Institute for Pure and Applied Mathematics (IPAM) CQC2023 Reunion. Lake Arrowhead, California.
2025 Quantum Optimal Control, Barren Plateaus, and Wasserstein Distances. Talk at Institute for Pure and Applied Mathematics (IPAM) NOT2025 Culminating Retreat. Lake Arrowhead, California.
2024 Classical Parameter-Setting Strategies for the Quantum Approximate Optimization Algorithm (QAOA). Talk at Graduate-level Research in Industrial Projects for Students (GRIPS) Final Presentation, Tohoku University Advanced Institute for Materials Research (AIMR). Sendai, Japan.
2024 Designing Quantum Gates Using High-Order Hermite Methods. Talk at Society for Industrial and Applied Mathematics (SIAM) Annual Meeting 2024. Online.
2024 Fast, High-Order Solvers for Quantum Optimal Control. Talk at Quantum Information and Computation (QuIC) Seminar, Michigan State University. East Lansing, Michigan.
2023 Classically-Simulated Quantum Optimal Control Methods for Designing Gates using Continuous Control Functions. Talk at Institute for Pure and Applied Mathematics (IPAM) CQC2023 Student Seminar Series. IPAM, Los Angeles, California.
2023 Implicit Filon Methods for Highly Oscillating Problems, Gate Design for Controlled Qubits. Talk at American Mathematical Society (AMS) 2023 Spring Sectional. University of Cincinnati, Cincinnati, Ohio.
2022 Implicit Filon Methods for Highly Oscillating Problems, Gate Design for Controlled Qubits. Talk at Waves 2022, ENSTA-Paris. Palaiseau, France.

Posters

2025 QuantumGateDesign.jl: High-Order Methods, Fast Gate Design. Poster at International conference on Quantum Simulation and Quantum Walks (QSQW) 2025. Naples, Italy.
2024 QuantumGateDesign.jl: Higher-Order Methods for Faster Gate Design. Poster at Kernel Methods in Uncertainty Quantification and Experimental Design workshop, Institute for Mathematical and Statistical Innovation. Chicago, Illinois.
2023 Filon Time Integration for Gate Design. Poster at Accelerated Research in Quantum Computing (ARQC) All-hands Meeting, Berkeley National Lab. Berkeley, California.
2022 Numerical Methods for Highly Oscillatory Problems in Quantum Computing: Quantum State Evolution Simulated using Implicit Filon Quadrature. Poster at Midwest Numerical Analysis Day 2022, University of Michigan. Ann Arbor, Michigan.

Skills

Programming
Julia, Python, C, C++, VHDL, Matlab, Mathematica
HPC & Sci. Computing
CUDA, MPI, OpenMP, SLURM, Adjoint Methods, High-Order Methods, Profiling
Quantum Computing
QuTiP, Qiskit, CUDA-Q, Pulse-Level Control, QAOA, Error Mitigation
Machine Learning
TensorFlow, Scikit-Learn, Lux.jl, Transfer Learning, Scientific ML
Tools
Git, Linux, Tests & CI, Claude Code, LaTeX
Interests
Quantum Optimal Control, Simulating Physics, Scientific Software, Visualizing Information, Applied Research, Pedagogy, Computer Graphics
Soft Skills
Leadership, Independent Learning, Communication, Presentation, Teamwork
CC BY-SA 4.0 Spencer Lee. Last modified: August 10, 2026. Website built with Franklin.jl and the Julia programming language.