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Andrew C. Potter

Researcher at University of Texas at Austin

Publications -  117
Citations -  8260

Andrew C. Potter is an academic researcher from University of Texas at Austin. The author has contributed to research in topics: Quantum & Quantum entanglement. The author has an hindex of 42, co-authored 106 publications receiving 6463 citations. Previous affiliations of Andrew C. Potter include University of California, Berkeley & Massachusetts Institute of Technology.

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Observation of a discrete time crystal

TL;DR: In this paper, the authors present the experimental observation of a discrete time crystal in an interacting spin chain of trapped atomic ions and apply a periodic Hamiltonian to the system under many-body localization conditions, and observe a subharmonic temporal response that is robust to external perturbations.
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Quantum oscillations from surface Fermi arcs in Weyl and Dirac semimetals

TL;DR: It is found that the open Fermi arcs participate in unusual closed magnetic orbits by traversing the bulk of the sample to connect opposite surfaces, and result in quantum oscillations that contain observable signatures of the topological character of the bulk Weyl semimetal.
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Discrete Time Crystals: Rigidity, Criticality, and Realizations

TL;DR: A simple model for a one-dimensional discrete time crystal which explicitly reveals the rigidity of the emergent oscillations as the drive is varied is considered and a blueprint based upon a one dimensional chain of trapped ions is proposed.
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Landau quantization and quasiparticle interference in the three-dimensional Dirac semimetal Cd3As2

TL;DR: Scanning tunnelling microscopy measurements at sub-kelvin temperatures and high magnetic fields on the II-V semiconductor Cd3As2.2 show that defects mostly influence the valence band, consistent with the observation of ultrahigh-mobility carriers in the conduction band.
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Zero-bias peaks in the tunneling conductance of spin-orbit-coupled superconducting wires with and without Majorana end-states.

TL;DR: It is shown that this system generically exhibits a (nonquantized) zero-bias peak even when the wire is topologically trivial and does not possess Majorana end states, by simulating the tunneling conductance for multiband wires with realistic amounts of disorder.