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Nicolas Roch

Researcher at University of Grenoble

Publications -  83
Citations -  3001

Nicolas Roch is an academic researcher from University of Grenoble. The author has contributed to research in topics: Qubit & Transmon. The author has an hindex of 23, co-authored 73 publications receiving 2492 citations. Previous affiliations of Nicolas Roch include Centre national de la recherche scientifique & University of California, Berkeley.

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Observation of measurement-induced entanglement and quantum trajectories of remote superconducting qubits

TL;DR: The entanglement of two superconducting qubits is demonstrated by designing a joint measurement that probabilistically projects onto an entangled state by using a continuous measurement scheme, confirming the validity of the quantum Bayesian formalism for a cascaded system.
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Generating entangled microwave radiation over two transmission lines.

TL;DR: Using a superconducting circuit, the Josephson mixer, the first experimental realization of spatially separated two-mode squeezed states of microwave light is demonstrated, an unambiguous proof of entanglement.
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Quantum phase transition in a single-molecule quantum dot

TL;DR: The quantum magnetic phase transition between two different Kondo regimes is achieved by tuning gate voltages and is fundamentally different from previously observed Kondo transitions in semiconductor and nanotube quantum dots.
Journal Article

Quantum Phase Transition in a single-molecule Quantum Dot

TL;DR: In this paper, a single-molecule quantum dot was operated in the Kondo regime, where the electron spin on the quantum dot is partially screened by metallic electrodes, and a gate voltage induced a crossing of two different types of electron spin states (singlet and triplet) at zero magnetic field.
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Coupling a quantum dot, fermionic leads, and a microwave cavity on a chip.

TL;DR: A hybrid architecture consisting of a quantum dot circuit coupled to a single mode of the electromagnetic field is demonstrated and an electron-photon coupling strength is determined which should enable circuit QED experiments with more complex quantum dot circuits.