Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

The European Physical Journal B

Optical absorption spectra of K41-atoms isolated in argon matrices

H. Coufal, U. Nagel, M. Burger, E. L�scher

Published Sep 1, 1976• 9 citations
Publisher
DOI
10.1007/bf01420883

Related papers

Optical Absorption Spectra of Cesium Atoms in Rare-Gas Matrices

Teinosuke Kanda, Takeo Ebisu

Journal of the Physical Society of Japan•Sep 1, 1971•4 citations

Absorption Spectra of Lithium Atoms Stabilized in Noble-Gas Matrices

A. A. Belyaeva, Yu. B. Predtechenskiĭ, L. D. Scherba

Optics and Spectroscopy•Mar 1, 1968•2 citations

Annealing studies on the absorption spectrum of 41K-atoms trapped in an argon matrix

H. Coufal, U. Nagel, M. Burger +1 more

Physics Letters A•Apr 1, 1974•14 citations

Excitation and emission spectra of rubidium in rare-gas thin-films

Ilja Gerhardt, Kyungseob Sin, Takamasa Momose

To understand the optical properties of atoms in solid state matrices, the absorption, excitation, and emission spectra of rubidium doped thin-films of argon, krypton, and xenon were investigated in detail. A two-dimensional spectral analysis extends earlier reports on the excitation and emission properties of rubidium in rare-gas hosts. We found that the doped crystals of krypton and xenon exhibit a simple absorption-emission relation, whereas rubidium in argon showed more complicated spectral structures. Our sample preparation employed in the present work yielded different results for the Ar crystal, but our peak positions were consistent with the prediction based on the linear extrapolation of Xe and Kr data. We also observed a bleaching behavior in rubidium excitation spectra, which suggests a population transfer from one to another spectral feature due to hole-burning. The observed optical response implies that rubidium in rare-gas thin-films is detectable with extremely high sensitivity, possibly down to a single atom level, in low concentration samples.

arXiv:1206.1641•The Journal of Chemical Physics•Jul 5, 2012•8 citations

Excitation and emission spectra of rubidium in rare-gas thin-films

Ilja Gerhardt, A Brian Sin, Takamasa Momose

To understand the optical properties of atoms in solid state matrices, the absorption, excitation and emis-sion spectra of rubidium doped thin-films of argon, krypton and xenon were investigated in detail. A two-dimensional spectral analysis extends earlier reports on the excitation and emission properties of rubidium in rare-gas hosts. We found that the doped crystals of krypton and xenon exhibit a simple absorption-emission relation, whereas rubidium in argon showed more complicated spectral structures. Our sample preparation employed in the present work yielded different results for the Ar crystal, but our peak positions were consis-tent with the prediction based on the linear extrapolation of Xe and Kr data. We also observed a bleaching behavior in rubidium excitation spectra, which suggests a population transfer from one to another spectral feature due to hole-burning. The observed optical response implies that rubidium in rare-gas thin-films is detectable with extremely high sensitivity, possibly down to a single atom level, in low concentration samples. I.

•Aug 16, 2016•8 citations

Induced Absorption Spectra at Optical Frequencies

A. K. Macquillan, Boris Peter Stoicheff

•Jan 1, 1966•0 citations
To understand the optical properties of atoms in solid state matrices, the absorption, excitation, and emission spectra of rubidium doped thin-films of argon, krypton, and xenon were investigated in detail. A two-dimensional spectral analysis extends earlier reports on the excitation and emission properties of rubidium in rare-gas hosts. We found that the doped crystals of krypton and xenon exhibit a simple absorption-emission relation, whereas rubidium in argon showed more complicated spectral structures. Our sample preparation employed in the present work yielded different results for the Ar crystal, but our peak positions were consistent with the prediction based on the linear extrapolation of Xe and Kr data. We also observed a bleaching behavior in rubidium excitation spectra, which suggests a population transfer from one to another spectral feature due to hole-burning. The observed optical response implies that rubidium in rare-gas thin-films is detectable with extremely high sensitivity, possibly down to a single atom level, in low concentration samples.
To understand the optical properties of atoms in solid state matrices, the absorption, excitation and emis-sion spectra of rubidium doped thin-films of argon, krypton and xenon were investigated in detail. A two-dimensional spectral analysis extends earlier reports on the excitation and emission properties of rubidium in rare-gas hosts. We found that the doped crystals of krypton and xenon exhibit a simple absorption-emission relation, whereas rubidium in argon showed more complicated spectral structures. Our sample preparation employed in the present work yielded different results for the Ar crystal, but our peak positions were consis-tent with the prediction based on the linear extrapolation of Xe and Kr data. We also observed a bleaching behavior in rubidium excitation spectra, which suggests a population transfer from one to another spectral feature due to hole-burning. The observed optical response implies that rubidium in rare-gas thin-films is detectable with extremely high sensitivity, possibly down to a single atom level, in low concentration samples. I.