Effective working regions of the grating chip for planar-integrated magneto-optics trap

We experimentally investigate the effective working regions of a planar-integrated magneto-optical trap (MOT). By scanning a blocking point in the incident laser beam, we identify four effective working regions of the laser beam contributing to MOT: a central region corresponding to the downward inc...

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Published inChinese physics B Vol. 34; no. 7; pp. 74211 - 74215
Main Authors Huang, Chang-Jiang, Wang, Ling-Xiao, Chen, Liang, Li, Chuan-Feng, Guo, Guang-Can, Zou, Chang-Ling, Xiang, Guo-Yong
Format Journal Article
LanguageEnglish
Published Chinese Physical Society and IOP Publishing Ltd 01.07.2025
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ISSN1674-1056
2058-3834
DOI10.1088/1674-1056/adcb9c

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Abstract We experimentally investigate the effective working regions of a planar-integrated magneto-optical trap (MOT). By scanning a blocking point in the incident laser beam, we identify four effective working regions of the laser beam contributing to MOT: a central region corresponding to the downward incident beam and three regions associated with the upward diffracted beams. The latter three regions are the effective regions of the grating chip. It is demonstrated that only three 3.5 mm radius grating regions can produce a MOT that is capable of trapping 10 5 atoms with a temperature below 150 μK, retaining over 60% of atoms compared to a complete grating chip. This finding suggests that more than 60% of the grating chip area can be saved for other on-chip components, such as metasurfaces and nanophotonic devices, without significantly compromising MOT performance, paving the way for more compact and versatile atom–photon interfaces.
AbstractList We experimentally investigate the effective working regions of a planar-integrated magneto-optical trap (MOT). By scanning a blocking point in the incident laser beam, we identify four effective working regions of the laser beam contributing to MOT: a central region corresponding to the downward incident beam and three regions associated with the upward diffracted beams. The latter three regions are the effective regions of the grating chip. It is demonstrated that only three 3.5 mm radius grating regions can produce a MOT that is capable of trapping 10 5 atoms with a temperature below 150 μK, retaining over 60% of atoms compared to a complete grating chip. This finding suggests that more than 60% of the grating chip area can be saved for other on-chip components, such as metasurfaces and nanophotonic devices, without significantly compromising MOT performance, paving the way for more compact and versatile atom–photon interfaces.
Author Wang, Ling-Xiao
Xiang, Guo-Yong
Chen, Liang
Guo, Guang-Can
Zou, Chang-Ling
Li, Chuan-Feng
Huang, Chang-Jiang
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Snippet We experimentally investigate the effective working regions of a planar-integrated magneto-optical trap (MOT). By scanning a blocking point in the incident...
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SubjectTerms cold atoms
grating chip
magneto-optical trap (MOT)
Title Effective working regions of the grating chip for planar-integrated magneto-optics trap
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