Two-stage laser cooling and optical trapping of thulium atoms
G. A. Vishnyakova, E S Kalganova, Denis D. Sukachev, Sergey A. Fedorov, А. В. Соколов, А. В. Акимов, N. Kolachevsky, В. Н. Сорокин
Abstract
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G. A. Vishnyakova, E S Kalganova, Denis D. Sukachev, Sergey A. Fedorov, А. В. Соколов, А. В. Акимов, N. Kolachevsky, В. Н. Сорокин
Abstract
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We propose to use the magnetic-dipole transition at coupling two ground state fine-structure components of thulium (Tm), as a 'clock transition' in optical clocks. We have demonstrated first stage laser cooling of Tm atoms down to a temperature of 25 K using a strong transition at and we have also shown preliminary results for second stage cooling using a weaker transition at (natural linewidth γ G = 350 kHz). Laser cooled atoms have been trapped in an optical dipole trap and in a 1D optical lattice operating near 532 nm.
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We propose to use the magnetic-dipole transition at coupling two ground state fine-structure components of thulium (Tm), as a 'clock transition' in optical clocks. We have demonstrated first stage laser cooling of Tm atoms down to a temperature of 25 K using a strong transition at and we have also shown preliminary results for second stage cooling using a weaker transition at (natural linewidth γ G = 350 kHz). Laser cooled atoms have been trapped in an optical dipole trap and in a 1D optical lattice operating near 532 nm.
Key concepts: Laser cooling, Laser linewidth, Laser, Materials science, Atomic physics, Optical lattice, Trapping, Magnetic dipole transition