Physics · Quantum technologies
I study physics and quantum technologies! I have worked on quantum algorithms, superconducting circuits, ion traps, and quantum software.
Currently interested in quantum hardware and the practical work that connects simulations with experiments and using quantum circuits to test fundamentals of quantum mechanics!
View CV
01
During my Master’s thesis at Alice & Bob, I explored the effects of spurious modes on superconducting resonators. I built models, fitting methods, and design-automation tools to study circuits and compare simulations with experimental measurements.
I also maintained research code and technical documentation while working with chip-design, simulation, and experimental teams.
Read Master’s thesis ↗Paris, France
Modelled Rabi oscillations and noise in a driven barium-ion system, and compared continuous dynamical-decoupling predictions with ion-trap data.
Using Python, I solved optical Bloch equations for detuning jitter and Rabi-frequency noise, and explored dressed-state and phase-modulated driving approaches.
Read project report ↗Aarhus, Denmark
Developed data-acquisition and post-processing scripts for flux-tunable resonators, and worked with homodyne readout and dilution-fridge experiments.
The project included assembling a homodyne readout setup and characterising the noise response of the resonators.
View project poster ↗Gothenburg, Sweden
Worked on a quantum algorithm for the Hamiltonian-cycle formulation of the travelling salesman problem, including circuit verification and runtime analysis.
The work used quantum phase estimation and the quantum Fourier transform, and led to a joint publication in Quantum Information & Computation.
Read the preprint ↗Kolkata, India
Built a simulator for measurement-based quantum computing using cluster states, Qiskit, dynamic circuits, and OpenQASM 3.
I benchmarked it with quantum gates and common algorithms, and explored a path towards running the protocol on real quantum hardware.
Read Bachelor’s thesis ↗India
Explored an annealer-based QUBO approach for linear systems and benchmarked D-Wave annealers for large sparse matrices.
I compared runtime, minimum energy, solution quality, and error for different encodings, including sparse matrices up to 3100 × 3100.
India
02
Journal article · 2025
A. Sharma, N. Deshpande, S. Ghosh, S. Das & S. Roy. Quantum Information & Computation 25, 71–81.
Open paper ↗03
QuanTEEM · Université Bourgogne-Franche-Comté, Dijon, France, and Aarhus University, Denmark.
Thesis: “Effects of spurious modes on superconducting resonators.”
Fergusson College, Pune, India.
Thesis: “Blind Quantum Computing.”
04
Python, C++, Qiskit, Cirq, Ocean SDK, Qua, KiCad, OPX+, VNA, FEKO, and Git.
Previously involved with Astroclub FC and QIndia / QWorld through science outreach, writing, web development, and event organisation.
Contact
For research, projects, or a general conversation:
anantsharma2410@gmail.com