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Mark A. Eriksson

Researcher at University of Wisconsin-Madison

Publications -  246
Citations -  11897

Mark A. Eriksson is an academic researcher from University of Wisconsin-Madison. The author has contributed to research in topics: Quantum dot & Qubit. The author has an hindex of 52, co-authored 246 publications receiving 10400 citations. Previous affiliations of Mark A. Eriksson include Alcatel-Lucent & Harvard University.

Papers
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Journal Article

Mitigating the effects of charge noise and improving the coherence of a quantum dot hybrid qubit

TL;DR: In this article, it was shown that the Rabi decay rate of the quantum dot hybrid qubit is limited by charge noise for a large range of detunings, and that by tuning the parameters of the qubit, and by operating the qu bit at larger detuning, the coherence times can be increased by more than an order of magnitude.
Journal ArticleDOI

Excitation of a Si/SiGe quantum dot using an on-chip microwave antenna

TL;DR: In this paper, transport measurements on a Si/SiGe quantum dot subject to microwave excitation via an on-chip antenna were performed and the response showed signatures of photon-assisted tunneling and only a small effect on charge stability.
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Si/SiGe quantum dot with superconducting single-electron transistor charge sensor

TL;DR: In this article, a robust process for fabrication of surface-gated Si/SiGe quantum dots (QDs) with an integrated superconducting single-electron transistor (S-SET) charge sensor is reported.
Proceedings ArticleDOI

Silicon-based nanomembrane materials: the ultimate in strain engineering

TL;DR: In this article, the authors use the ideas of strain sharing and critical thickness combined with the ability to release the top layers of SOI, to create freestanding, dislocation-free, elastically strain relieved flexible Si/Ge membranes with nanometer scale thickness, which they call NanoFLEXSi or Si nanomembranes (SiNMs).
Journal ArticleDOI

Combining experiment and optical simulation in coherent X-ray nanobeam characterization of Si/SiGe semiconductor heterostructures

TL;DR: In this paper, an extension of coherent x-ray optical simulations of convergent X-ray beam diffraction patterns to arbitrary xray incident angles is presented to allow the nanobeam diffraction pattern of complex heterostructures to be simulated faithfully.