The Simon Lab at Stanford University


The Simon Lab explores the interface of condensed matter physics and quantum optics, employing tools from atomic physics, control theory, and state-of-the-art technology developed in-house. We build materials from light, investigate the role of topology in determining material properties, and tackle challenges at the crossroads between strong correlations and quantum coherence.


 

Making Materials from Light

Matter is typically made of electrons and ions. By developing tools to build materials from photons, we learn about the underpinnings of material properties, and have an opportunity to create matter which previously existed only in the minds of theorists.

Exploring Small Quantum Systems

The laws of quantum mechanics teach us how individual objects behave. When several such objects to interact coherent, the behaviors that emerge are both bizarre and beautiful. We investigate these behaviors with an eye towards material properties, quantum information processing and quantum-secured communication.

 

A Twisted View of Matter

A new generation of materials has revealed that "hidden", non-local order can have far-reaching implications on material properties. These exotic properties often evade detection in the bulk, and manifest as unidirectional edge states, or even more fascinatingly, appear to bind a giant magnet to each quasi-particle, inducing exotic braiding statistics via Aharanov-Bohm phases.

Ph.D. 11/3/2023

Margaret Panetta

Congratulations to Dr. Margaret Panetta on successfully defending her thesis.

Ph.D. 10/27/2023

Gabrielle Roberts

Congratulations to Dr. Gabrielle Roberts on successfully defending her thesis.

Congratulations 9/13/2023

Gabrielle RobertsAndrei VrajitoareaMargaret PanettaBrendan Saxberg

Congratulations to Gabrielle Roberts, Andrei Vrajitoarea, Meg Panetta and Brendan Saxberg on their paper Manybody Interferometry of Quantum Fluids, posted today to the arXiv.

Thesis Award 6/7/2023

Aziza Suleymanzade

Congratulations to Aziza Suleymanzade on receiving the 2023 Deborah Jin Outstanding Doctoral Thesis Award from the American Physical Society.

Small Waist Cavity Arrays

Small Waist Cavity Arrays

Cavity Rydberg Polaritons

Cavity Rydberg Polaritons

Topological Photonics

Topological Photonics

Photonic Materials in Quantum Circuits

Photonic Materials in Quantum Circuits

Hybrid Quantum Systems

Hybrid Quantum Systems

Theory

Theory

Alexander Anferov, Shannon P Harvey, Fanghui Wan, Jonathan Simon, and David I Schuster, "Superconducting Qubits Above 20 GHz Operating over 200 mK" arXiv: 2402.03031, (2024)

Alexander Anferov, Shannon P Harvey, Wendy Wan, Kan-Heng Lee, Jonathan Simon, and David I Schuster, "Low-loss millimeter-wave resonators with an improved coupling structure" arXiv: 2311.01670, (2023)

Gabrielle Roberts, Andrei Vrajitoarea, Brendan Saxberg, Margaret G. Panetta, Jonathan Simon, and David I Schuster, "Manybody Interferometry of Quantum Fluids" arXiv: 2309.05727, (2023)

Alexander Anferov, Kan-Heng Lee, Fang Zhao, Jonathan Simon and David I Schuster, "Improved Coherence in Optically-Defined Niobium Trilayer Junction Qubits" arXiv: 2306.05883, (2023)

Aishwarya Kumar, Aziza Suleymanzade, Mark Stone, Lavanya Taneja, Alexander Anferov, David I. Schuster, and Jonathan Simon, "Quantum-enabled millimetre wave to optical transduction using neutral atoms" Nature 615, 614–619, (2023)

Chuan Yin, Henry Ando, Mark Stone, Danial Shadmany, Anna Soper, Matt Jaffe, Aishwarya Kumar and Jonathan Simon, "A Cavity Load Lock Apparatus for Next-Generation Quantum Optics Experiments" arXiv: 2301.12323, (2023)

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