Eldad Peretz

TL;DR: A scalable shared-control architecture for silicon-based quantum computing using topological quantum error correction and a new pathway for large-scale quantum information processing in silicon and potentially in other qubit systems where uniformity can be exploited.

TL;DR: This work demonstrates single-shot spin read-out with 97.9% measurement fidelity of a phosphorus dopant qubit within a vertically gated single-electron transistor with <5 nm interlayer alignment accuracy and ensures the formation of a fully crystalline transistor using just two atomic species: phosphorus and silicon.

TL;DR: In this article, a single P donor was placed next to a 2P molecule 16 ± 1 nm apart and used their distinctive hyperfine coupling strengths to address qubits at vastly different resonance frequencies.

TL;DR: In this paper, a charge sensor that can be fabricated at the atomic scale, needs only one electrical lead, and is capable of the sensitivity needed for single-shot dispersive readout of a lone electron's spin state is presented.

TL;DR: In this article, the authors compare charge transitions on a deterministic single P donor in silicon using radio frequency reflectometry measurements with a tunnel coupled reservoir and DC charge sensing using a capacitively coupled single electron transistor (SET).