The field of circuit QED has emerged as a rich platform for both quantum computation and quantum simulation. Lattices of coplanar waveguide (CPW) resonators realize artificial photonic materials in the tight-binding limit. Combined with strong qubit-photon interactions, these systems can be used to study dynamical phase transitions, many-body phenomena, and spin models in driven-dissipative systems. These waveguide cavities are uniquely deformable and can produce lattices and networks which cannot readily be obtained in other systems, including periodic lattices in a hyperbolic space of constant negative curvature, and the one-dimensional nature of CPW resonators leads to degenerate flat bands. In our lab, we build experimental implementations of these systems using superconducting circuits.
About
Group Lead
Research Publications
Boosting the Quantum State of a Cavity with Floquet Driving
, , Physical Review Letters, 128, (2022)Circuit Quantum Electrodynamics in Hyperbolic Space: From Photon Bound States to Frustrated Spin Models
, , Physical Review Letters, 128, (2022)bienias22.pdfbienias22supp.pdfCrystallography of Hyperbolic Lattices
, , Physical Review B, 105, (2022)boettcher22.pdf
News
New Design Packs Two Qubits into One Superconducting Junction
October 21, 2024Congratulations Dr. Amouzegar!
April 2, 2024Gapped Flat Band Lattice Interacting with Qubits
November 1, 2023