T. A. Manning

TL;DR: It is shown that the non-local correlations of entangled quantum particles can be used to certify the presence of genuine randomness, and it is thereby possible to design a cryptographically secure random number generator that does not require any assumption about the internal working of the device.

TL;DR: This work demonstrates entangling quantum gates within a chain of five trapped ion qubits by optimally shaping optical fields that couple to multiple collective modes of motion and enables high-fidelity gates that can be scaled to larger qubit registers for quantum computation and simulation.

TL;DR: In this paper, a trapped ion-cavity QED system is presented, where a single ytterbium ion is confined by a micron-scale ion trap inside a 2-mm optical cavity.

TL;DR: The crucial role of collecting light from atomic qubits for large-scale networking is emphasized and two techniques to enhance light collection using reflective optics or optical cavities are described.

TL;DR: In this paper, the authors review quantum protocols for generating entanglement and operating gates between two distant atomic qubits, which can be used for constructing scalable atom-photon quantum networks.