J
Jörg Schmiedmayer
Researcher at Vienna University of Technology
Publications - 358
Citations - 21391
Jörg Schmiedmayer is an academic researcher from Vienna University of Technology. The author has contributed to research in topics: Quantum & Ultracold atom. The author has an hindex of 72, co-authored 344 publications receiving 19122 citations. Previous affiliations of Jörg Schmiedmayer include Rowland Institute for Science & University of Innsbruck.
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Electron beam driven alkali metal atom source for loading a magneto-optical trap in a cryogenic environment
Stefan Haslinger,R. Amsuess,Ch. Koller,Christoph Hufnagel,Nils Lippok,Johannes Majer,J. Verdú,S. Schneider,Jörg Schmiedmayer +8 more
TL;DR: In this article, a magneto-optical trap (MOT) was used to release alkali metal atoms in a magnetic beam driven source with a heat load of less than 10mW, which is about a factor 1000 smaller than for a typical alkali dispenser.
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Rydberg Atoms in Magnetic Quadrupole Traps
TL;DR: In this article, the electronic structure and properties of Rydberg atoms exposed to a magnetic quadrupole field were investigated and it was shown that the spatial as well as generalized time reversal symmetries lead to a two-fold degeneracy of the electronic states in the presence of the external field.
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Thermometry of one-dimensional Bose gases with neural networks
Frederik Skovbo Møller,Thomas Schweigler,Thomas Schweigler,Mohammadamin Tajik,Jo{ã}o Sabino,Jo{ã}o Sabino,Federica Cataldini,Si-Cong Ji,Jörg Schmiedmayer +8 more
TL;DR: In this article, a neural network is trained to predict both the temperature of single realizations of the system and the uncertainty thereof, which can be combined in an estimate of the mean temperature, improving precision.
Posted Content
Unveiling Emergent Crystal Orders of Incommensurate Dipolar Bosons in One-Dimensional Lattices using Full Distribution Functions
TL;DR: In this paper, the ground states of a few dipolar bosons in optical lattices with incommensurate filling are explored and the competition of kinetic, potential, and interaction energies leads to the emergence of a variety of crystal state orders with characteristic one-and two-body densities.
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Shaking the condensates: Optimal number squeezing in the dynamic splitting of a Bose-Einstein condensate
TL;DR: In this paper, the authors apply optimal control theory to the dynamic splitting process of a Bose-Einstein condensate (BEC) and find that the optimal solution for the trap is oscillatory, where a counterintuitive shaking during the ramp produces highly squeezed states.