scispace - formally typeset
M

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
More filters
Journal ArticleDOI

Microwave-driven coherent operation of a semiconductor quantum dot charge qubit

TL;DR: The qubit operation is characterized using two tomographic approaches: standard process tomography and gate set tomography, and both methods consistently yield process fidelities greater than 86% with respect to a universal set of unitary single-qubit operations.
Journal ArticleDOI

Electronically driven structure changes of Si captured by femtosecond electron diffraction.

TL;DR: It is found that the relaxation process along the modified potential is not inertial but rather involves multiple scattering towards the disordered state.
Journal ArticleDOI

Electrically Addressable Biomolecular Functionalization of Carbon Nanotube and Carbon Nanofiber Electrodes

TL;DR: In this article, the authors demonstrate the electrically addressable biomolecular functionalization of single-walled carbon nanotube electrodes and vertically aligned carbon nanofiber electrodes.
Journal ArticleDOI

Spectroscopy of few-electron single-crystal silicon quantum dots.

TL;DR: The fabrication of a few-electron quantum dot in single-crystal silicon that does not contain any heterogeneous interfaces is reported, and the resulting confinement produces novel effects associated with energy splitting between the conduction band valleys.
Journal Article

Spectroscopy of a few-electron single-crystal silicon quantum dot

TL;DR: In this paper, a few-electron quantum dot has been fabricated in single-crystal silicon that does not contain any heterogeneous interfaces and is defined by atomically abrupt changes in the density of phosphorus dopant atoms, and the resulting confinement produces novel effects associated with energy splitting between conduction band valleys.