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Robert Schoelkopf

Researcher at Yale University

Publications -  324
Citations -  48201

Robert Schoelkopf is an academic researcher from Yale University. The author has contributed to research in topics: Qubit & Quantum computer. The author has an hindex of 95, co-authored 312 publications receiving 40906 citations. Previous affiliations of Robert Schoelkopf include Massachusetts Institute of Technology & California Institute of Technology.

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An architecture for integrating planar and 3D cQED devices

TL;DR: In this paper, a coaxial transmission line device architecture with coherence similar to traditional 3D cQED systems is introduced, and the authors integrate a resonator-qubit system in this architecture with a seamless 3D cavity, and separately pattern a qubit, readout resonator, Purcell filter and high-Q stripline resonator on a single chip.
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Measuring the decoherence of a quantronium qubit with the cavity bifurcation amplifier

TL;DR: In this paper, the cavity bifurcation amplifier (CBA) is applied to the readout of the quantronium qubit, which is based on a simple coplanar waveguide imposing a predetermined frequency and whose other rf characteristics such as the quality factor are easily controlled and optimized.
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Decoherence of superconducting qubits caused by quasiparticle tunneling

TL;DR: In this paper, a theory of the pure dephasing rate caused by quasiparticles tunneling through a Josephson junction and of inhomogeneous broadening due to changes in the occupations of Andreev states in the junction was developed.
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Noise performance of the radio-frequency single-electron transistor

TL;DR: In this paper, a radio-frequency single-electron-transistor (RF-SET) circuit with an HEMT amplifier and an impedance transformer is analyzed, where the authors consider how power is transferred between different components of the circuit, model noise components, and analyze the operating conditions.
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To catch and reverse a quantum jump mid-flight

TL;DR: In this article, the jump from the ground to an excited state of a superconducting artificial three-level atom can be tracked as it follows a predictable "flight," by monitoring the population of an auxiliary energy level coupled to the ground state.