Quantum Research Institute | Quantum computing with atomic qubit arrays: Mark Saffman – University of Wisconsin and Infleqtion
In-Person: Michigan Memorial Phoenix Project – PML2000
Zoom: https://umich.zoom.us/j/99333578305?jst=2
Abstract:
Large arrays of neutral atoms are a leading modality in the race towards useful quantum computation. Systems with more than 1000 qubits in 2D arrays and gate fidelities approaching three nines are being developed by many academic and industrial groups. I will present recent ...
Quantum Research Institute | Cavity QED with molecular defects coupled to a photonic crystal cavity: Jonathan Hood (Purdue University)
In-person: Michigan League – Henderson room (3rd Floor)
Zoom: https://umich.zoom.us/j/95387296886?jst=2
Abstract:
We implement permanent spectral tuning to bring lifetime-limited emitters into collective resonance within an integrated photonic cavity. This addresses a fundamental challenge in solid-state cavity QED: combining multiple coherent quantum emitters with scalable nanophotonics. Our hybrid approach decouples emitter synthesis from nanophotonic fabrication ...
Quantum Research Institute | New architectures for neutral atom quantum computing: Jeff Thompson (Princeton University)
In-Person: Michigan Memorial Phoenix Project – 2000PML
Zoom: https://umich.zoom.us/j/91548361604?jst=2
Abstract: I will present recent theoretical and experimental developments on fault-tolerant quantum computing with neutral 171Yb atoms. On the theoretical side, I will discuss hardware-efficient implementations of error correction leveraging unique features of neutral atom qubits. I will also present experimental realizations of these concepts ...
Quantum Research Institute | A New Era in Quantum Optics: From Topological Photonics to Correlated Materials: Mohammad Hafezi (University of Maryland)
In-Person: West Hall 411
Zoom: https://umich.zoom.us/j/91759211821?jst=2
Title: A New Era in Quantum Optics: From Topological Photonics to Correlated Materials
Abstract: Quantum optics investigates the interactions between light and matter at their most fundamental level. In recent years, we have witnessed remarkable advances in controlling individual photons and other excitations, such as spin, charge, excitons, ...
Precision measurements and quantum sensing using cold atoms
In-Person: Michigan Memorial Phoenix Project. 2000PML
Zoom: https://umich.zoom.us/j/97924298308?jst=2