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

Optics and Spectroscopy

Impact relaxation of polarization of the ground state of alkali metal atoms in inert gases

V. V. Batygin, B. M. Gurevich

Published Apr 1, 1981• 0 citations
OpenAlex

Related papers

Excitation of Autoionization States of Alkali-metal Atoms in Slow Collisions with Inert-gas Atoms

Vladimir I. Ogurtsov, Yu. F. Bydin

JETPL•Aug 1, 1969•0 citations

Calculation of the collisional shifts and broadening of alkali atoms in an atmosphere of light inert gases

V. V. Batygin, M. B. Gornyi, Boris G. Matisov

OptSp•May 1, 1979•0 citations

Ground-state depolarization of an alkali atom in an inert buffer gas due to the formation of van der Waals molecules

V. V. Batygin, Dmitriy V. Kupriyanov

Optics and Spectroscopy•May 1, 1984•0 citations

The theoretical study of the ground-state polar chromium-alkali-metal-atom molecules

Lijuan Deng, Dezhi Gou, Junshuai Chai

Chemical Physics Letters•Mar 5, 2016•1 citation

Polarization transfer associated with nonresonance collisions of alkali-metal atoms

E. I. Dashevskaya

OptSp•Dec 1, 1975•0 citations

Narrowing of the Absorption Line of Light Alkali Metal Atoms in an Atmosphere of Heavy Inert Gases at Growing Radiation Intensity

А. И. Пархоменко, Anatolii M. Shalagin

The effect of narrowing of the absorption line of light alkali metal 7Li and 23Na atoms present in an atmosphere of heavy inert gas (xenon) with an increase in the external radiation intensity has been investigated. For 7Li atoms at temperature T = 300 K and buffer gas (Xe) pressure $${{p}_{{{\text{Xe}}}}} = 0.002$$ Torr, the linewidth at half maximum decreases by a factor of 1.20 with an increase in the radiation intensity from 1 µW/cm2 to 2.5 mW/cm2. For 23Na atoms at T = 600 K and $${{p}_{{{\text{Xe}}}}} = 0.01$$ Torr, the linewidth at half maximum decreases by a factor of 1.29 with an increase in the radiation intensity from 1 µW/cm2 to 6 mW/cm2. The effect of field narrowing of the absorption line is due to the following factors. First, the collisional relaxation of the velocities of light resonance particles in an atmosphere of heavy buffer particles is divided into two stages with significantly different durations: relaxation in the velocity direction (fast stage) and relaxation in the velocity magnitude (slow stage). Second, there are no collisional transitions between hyperfine components of the ground state.

Optics and Spectroscopy•Nov 1, 2019•0 citations
The effect of narrowing of the absorption line of light alkali metal 7Li and 23Na atoms present in an atmosphere of heavy inert gas (xenon) with an increase in the external radiation intensity has been investigated. For 7Li atoms at temperature T = 300 K and buffer gas (Xe) pressure pXe=0.002{{p}_{{{\text{Xe}}}}} = 0.002pXe​=0.002 Torr, the linewidth at half maximum decreases by a factor of 1.20 with an increase in the radiation intensity from 1 µW/cm2 to 2.5 mW/cm2. For 23Na atoms at T = 600 K and pXe=0.01{{p}_{{{\text{Xe}}}}} = 0.01pXe​=0.01 Torr, the linewidth at half maximum decreases by a factor of 1.29 with an increase in the radiation intensity from 1 µW/cm2 to 6 mW/cm2. The effect of field narrowing of the absorption line is due to the following factors. First, the collisional relaxation of the velocities of light resonance particles in an atmosphere of heavy buffer particles is divided into two stages with significantly different durations: relaxation in the velocity direction (fast stage) and relaxation in the velocity magnitude (slow stage). Second, there are no collisional transitions between hyperfine components of the ground state.