MQC

Coherent optical control, quantum optics, semiconductor quantum dots, laser spectroscopy

Leading quantum institute

Quantum materials, topological states of matter, condensed matter physics (theory)

Majorana fermions, topological insulators, electronic imaging

Ultrafast laser-materials interactions, nonadiabatic quantum molecular dynamics, point-defect generation and transport, surface plasmon polaritons, high spatial frequency laser-induced periodic surface structures (HSFL), Radiation hydrodynamic modeling and finite element modeling of laser-materials interactions.

Superconducting computing

Transport properties, topological insulators, semimetals

Quantum sensing, quantum photonics, quantum materials, nanofabrication

Theoretical quantum condensed matter physics, especially topological quantum materials, and quantum information science

Quantum materials/qubit synthesis

Our research focuses on creating and investigating exotic quantum states of matter for next-generation optical, electronic, and information technologies. We use cryogenic magneto-optical spectroscopy to probe emergent quantum phenomena in low-dimensional heterostructured quantum materials.

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Photonics, frequency bin entanglement, quantum networking

Quantum mechanics: quantum dynamics of spin transitions and modeling of quantum coherence and beats in molecular systems

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Classical-quantum hybrids, evaluation of Green's function on quantum computers, embedding methods

Quantum systems for communication, sensing, computing, and machine learning, quantum testbeds, integrated quantum devices

2D topological materials, molecular beam epitaxy, scanning probe microscopy

Quantum data management, quantum learning theory

Quantum Materials, Nonlinear and Ultrafast Optics

Nanoelectronics and Nanophotonics, graphene and 2D nanomaterials

Quantum Gases

Quantum chemistry, electronic structure, strongly correlated molecules and materials