Roster of Participants

I am a theorist interested in understanding the dynamics of quantum systems out of equilibrium and in the presence of noise.

I am a theorist whose current interests include classical and quantum algorithms, entanglement in many-body systems, error correction/fault tolerance, as well as quantum criticality, strongly correlated systems, and topological phases of matter.

I am a theorist interested in many-body quantum dynamics. Recently, I have been studying monitored random circuits of non-interacting bosons.

I am a theorist and I studied quantum dynamics (Lieb-Robinson bounds), and quantum algorithms (thermalization and quantum simulation) using tools from high dimensional probability (e.g., random matrix theory, matrix concentration).

I am a theorist interested in problems related to quantum computation and quantum phases of matter. My recent research has focused on developing new quantum error correcting codes inspired by ideas from condensed matter physics.

I am a theorist generally interested in quantum magnetism, e.g. frustrated systems and quantum spin liquids; and their overlap with statistical and quantum information theories such as quantum entanglement and scrambling.

I am a theorist interested in the description of quantum many-body systems from a quantum information perspective. I analytically study measures of entanglement in paradigmatic models, exploring their connection to topology and to conservation laws, as well as the entanglement structure of many-body nonequilibrium states.

I am a theorist interested in quantum many-body dynamics and dynamical phase transition. Recently, I have been exploring many-body localization and measurement-induced phase transition.

I am a theorist interested in modeling and simulations for quantum networks, reinforcement learning for quantum protocols, measurement induced phase transitions in quantum many-body systems, non-equilibrium properties near and across quantum phase transitions.

I am a theorist and I research frustrated magnets, emergent QED in lattices, and more recently random unitary circuits with conservation laws.

I am a theorist broadly interested in condensed matter and AMO physics, and their intersection with quantum information science.

I am a theorist interested in quantum information theory, error correction, and entanglement dynamics.

I am an experimentalist who utilizes Nuclear Magnetic Resonance experiments and spin simulations to study out of equilibrium quantum many-body dynamics.

I am a theorist interested in many-body open quantum systems. In particular, I am studying Lindbladian dynamics and non-Hermitian random matrices in this context.

I am a theorist working on a broad spectrum of problems falling within the purview of quantum matter. Recently I have been trying to learn more about quantum dynamics, and have been developing interests in complexity theory, thermalization, and randomness.

I’m a theorist and work at the intersection of condensed matter, quantum optics and statistical physics, focusing on the study of monitored open quantum system. In particular I’m interested by the role played by the quantum jumps in the corresponding measurement induced phase transition. I’m also interested in non-Hermitian physics linked to this problem.

I am a theorist and I apply complexity and information theory to low-dimensional holographic models. In general, I am interested in critical phenomena common to both high energy and condensed matter models.

I am a theorist interested in non-equilibrium quantum dynamics of many-body systems, with an eye towards applications. Recently, I have been working on protocols for quantum state characterization, utilizing aspects of quantum chaos.

I’m a theorist broadly interested in out-of-equilibrium dynamics of quantum systems. In particular, I use techniques from Keldysh field theory to study evolution of entanglement entropy and other information theoretic measures in interacting Fermion systems in higher spatial dimensions (2D,3D). Recently, I have been interested in how to extend these techniques to include dynamical gauge fields.

The theoretical and experimental study of emergence of hydrodynamics in quasi-1D Bose gases.

I am a theorist who has studied quantum scars, prethermalization, absorbing-state transitions, and entanglement phase transitions. Happy to discuss any of these or any other physics topics!

I am a theorist working on nonequilibrium impurity system with tensor network and quantum embedding framework.

I am a theorist broadly interested in topological phases and dynamics in interacting Systems. Such systems include model glasses, quantum spin liquid candidate materials and quantum error correction codes.

I am a theorist interested in quantum chaotic systems and eigenstate thermalization, quantum/classical algorithms for simulation of equilibrium and non-equilibrium systems, and more generally physics applications of quantum information tools.

I am a theorist interested in finding universal phenomena in the dynamics of quantum many-body systems, using mostly unitary circuits as minimal models.

I am a theorist interested in quantum chaos, quantum equilibration and thermalization. Broadly the topics related to the foundations of statistical mechanics.

I am a theorist currently working on finding and characterising interesting informational phases of quantum many-body systems, often in the presence of measurements, disorder, and noise. I use solvable models and tensor network methods to solve these problems

I am a theorist who works mainly on strongly correlated systems, particularly in Professor Shastry’s ECFL framework.

I am a theorist. I focus on non-equilibrium quantum dynamics specifically aspects hydrodynamics of quantum spin chains. I’m also interested in entanglement of quantum states and quantum control/state preparation.

I am a theorist studying problems broadly related to slow quantum dynamics, from fault-tolerant quantum codes to robust Hilbert space shattering to systems with multipolar symmetries.

I’m a theorist interested in connections between quantum matter and quantum information.

I’m a theorist interested in the intersection of condensed matter and quantum information including: 1. topological and fracton phases of matter 2. Quantum error correction in stabilizer, subsystem, and Floquet codes 3. state preparation from measurements and applications in near-term quantum devices 4. generalized symmetries.

I am a theorist interested in the link between statistical field theory descriptions and tensor network representations of the Feynman-Vernon Influence Functional to investigate the non-equilibrium dynamics of quantum many-body systems.

I am a theorist interested in understanding various physical systems where randomness plays a crucial role. I use equilibrium and out-of-equilibrium approaches to study those systems.

I am a theorist interested in ergodicity breaking in quantum many-body systems. I am currently interested both in the dynamics of interfaces in 2d quantum lattice models and localization induced by disorder, in particular Anderson localization and MBL.

I am a theorist, generally interested in open quantum systems, topological phenomena and quantum entanglement. My research has been focused on non-Hermitian phenomena, including skin effect, PT symmetry and exceptional points.

I am a theorist working on non-ergodic quantum systems. Besides understanding systems featuring Hilbert space fragmentation, I am also interested in Floquet engineering.

I am a theorist whose research interests lie at the interface between atomic, molecular and optical physics, condensed matter, and quantum information science. I am particularly interested in non-equilibrium dynamics, including periodically driven systems, many-body localization, hydrodynamics and spin transport.

I am a theorist interested in the intersection of condensed matter physics and quantum information. Recently I have been studying on the effects of measurement and decoherence in quantum many-body systems.

Matthew Fisher’s recent research interests lie at the boundary between many-body condensed matter theory and quantum information theory, focussing on collective quantum dynamical behavior far out-of-equilibrium. He is especially interested in “monitored” quantum systems, wherein the competition between measurements and unitary gates can drive novel non-equilibrium dynamics in multi-qubit systems.

Research Type: Theoretical

My research group is undertaking the challenge of finding new analytic tools and organizing principles at the far-from-equilibrium frontier.

Research Type: Theoretical

I am a theorist. I am interested in understanding universal aspects of far-from-equilibrium quantum dynamics, highly-entangled phases of quantum matter, and quantum error-correction.

Research Type: Theoretical

I am a physicist at the National Institute of Standards and Technology and an Adjunct Assistant Professor in the Department of Physics and the Institute for Advanced Computer Studies. I am interested in the broad area of quantum science, technology, engineering, and mathematics, with topics ranging from superconducting circuits to molecular physics. I am the zookeeper of the error-correction zoo, an online repository of classical and quantum error-correcting codes. I received my Ph.D. from Yale in 2017 and was a postdoc at Caltech prior to joining QuICS.

Research Type: Theoretical

My research focuses on quantum simulations using ultracold atoms and molecules using novel tool such as quantum gas microscopy that allow for a microscopic detection of the atoms in a spin and desnity resolved wat. With such quantum simulators our group explores both ground state and non-equilbirium quantum phenomena especially in strongly interacting systems.

Research Area: Experimentalist

Quantum dynamics out of equilibrium, open and monitored quantum systems, connections between quantum information theory and statistical physics, disordered systems and quasicrystals

Research Type: Theoretical

Quantum many-body dynamics.

Research Type: Theoretical

I am a theorist interested in quantum information science, in particular the theory of fault tolerance and quantum error correction, and its intersection with quantum many-body physics.

I lead our Qiskit Leap team focused on showing the best science we can do with quantum computers today. I also develop and lead a quantum hardware processor design and software team - Qiskit Metal.

I have studied the fundamental nature of quantum predictability and randomness, applied quantum computing research, many-body simulation, scalable hardware architectures for quantum computers, electromagnetic and Hamiltonian design of superconducting quantum circuits, and more …

Research Type: Experimental

My research interests are in theoretical condensed matter physics and in particular in systems with strongly correlated electrons.

Research Type: Theoretical