Stephen Wein Email & Phone Number

Lannion, Fr

Lannion, Fr

Coordinating a team of researchers, doctoral students, and masters-level interns who are developing physical models, simulation methods, error mitigation strategies, and benchmarking techniques for quantum information processing with quantum emitters and photonics.

Massy, Île-De-France, France

Developing simulation software and techniques to model noise for photonic quantum computing based on solid-state emitters.

France

Analyzing the energetics of quantum gates to uncover thermodynamic limitations, propose fundamental tests of quantum thermodynamics, and to optimize scalable fault-tolerant quantum computing.Providing theory support for world-class experimental groups at the University of Oxford and Université Paris-Saclay.

Institute For Quantum Science And Technology, Calgary, Canada

Developed and analyzed proposals for quantum information processing implementations using defects in diamond, quantum dots, cavity quantum electrodynamics, and optomechanics. This included single photon sources, spin-photon entanglement generation, and quantum communication protocols.

Institute For Quantum Science And Technology, Calgary, Canada

Investigated electron-phonon interactions for the nitrogen-vacancy diamond colour centre. Numerically simulated imperfections for an extended linear optical Bell-state measurement scheme. Explored applications of graph theory to simplify quantum Monte Carlo simulations of fermion ensembles.

Palaiseau, Île-De-France, France

Provided theory support for quantum optics experiments using state-of-the-art quantum dot single photon sources. Developed an approach to infer the intrinsic single-photon purity from interference measurements of imperfect photonic states. Modelled and optimized phonon-assisted excitation to more than double the source efficiency. Proposed a protocol to deterministically generate scalable photon-number entanglement distributed in discrete time bins and performed experimental data analysis to… Show more Provided theory support for quantum optics experiments using state-of-the-art quantum dot single photon sources. Developed an approach to infer the intrinsic single-photon purity from interference measurements of imperfect photonic states. Modelled and optimized phonon-assisted excitation to more than double the source efficiency. Proposed a protocol to deterministically generate scalable photon-number entanglement distributed in discrete time bins and performed experimental data analysis to prove entangled light generation from quantum dot single-photon sources. Show less

Doctor Of Philosophy - Phd, Physics, 4.00/4.00, Nominated For The Governor General'S Academic Gold Medal

Bachelor Of Science - Bsc (Honours), Physics, 3.98/4.00, First Class

Bachelor Of Science - Bsc (Honours), Applied Mathematics, 3.98/4.00, First Class