Solid-state laser refrigeration of nanoscale quantum sensors

, 2000183 (2020)]. At low laser powers, heating of the sensor leads to the thermal drift of quantum electronic transition energies. At high laser powers, sensors degrade due to thermally induced phase transitions, including melting. Here, we report a general approach for mitigating the photothermal heating of nanoscale quantum sensors through solid-state laser refrigeration of the sensors' underlying substrate. Experimentally, both nanodiamonds and gold nanocrystals are attached separately to a ceramic laser-cooling substrate through van der Waals interaction. A combination of Debye-Waller factor thermometry and optically detected magnetic resonance spectroscopy of nitrogen vacancy centers is used to demonstrate that solid-state laser refrigeration of the substrate can reduce the temperature of attached nanodiamond payloads by 25 ± 3 K below steady-state operating temperatures. Stokes/anti-Stokes Raman spectroscopy is used to demonstrate reduced photothermal heating of plasmonic gold nanocrystals by 8.8 ± 2.7 K during surface-enhanced Raman spectroscopy sensing of rhodamine-6G molecules. These results suggest that solid-state laser cooling could open up experimental possibilities for rapid feedback-controlled cooling of a wide range of nanoscale quantum resources.

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Publication Details

Journal
Proceedings of the National Academy of Sciences
Published
2026-10-26
DOI
https://doi.org/10.1073/pnas.2534326123
Primary Topic
Diamond and Carbon-based Materials Research
Type
article
Field-Weighted Citation Impact
0.00

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article

Solid-state laser refrigeration of nanoscale quantum sensors

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article en

Abstract

, 2000183 (2020)]. At low laser powers, heating of the sensor leads to the thermal drift of quantum electronic transition energies. At high laser powers, sensors degrade due to thermally induced phase transitions, including melting. Here, we report a general approach for mitigating the photothermal heating of nanoscale quantum sensors through solid-state laser refrigeration of the sensors' underlying substrate. Experimentally, both nanodiamonds and gold nanocrystals are attached separately to a ceramic laser-cooling substrate through van der Waals interaction. A combination of Debye-Waller factor thermometry and optically detected magnetic resonance spectroscopy of nitrogen vacancy centers is used to demonstrate that solid-state laser refrigeration of the substrate can reduce the temperature of attached nanodiamond payloads by 25 ± 3 K below steady-state operating temperatures. Stokes/anti-Stokes Raman spectroscopy is used to demonstrate reduced photothermal heating of plasmonic gold nanocrystals by 8.8 ± 2.7 K during surface-enhanced Raman spectroscopy sensing of rhodamine-6G molecules. These results suggest that solid-state laser cooling could open up experimental possibilities for rapid feedback-controlled cooling of a wide range of nanoscale quantum resources.

Proceedings of the National Academy of SciencesVol. 123(44)
University of Notre Dame (US), Pacific Northwest National Laboratory (US), University of Washington (US), University of Rochester (US)
National Science Foundation, Office of Naval Research, Air Force Office of Scientific Research
Openalex Percentile: Top 29%
Diamond and Carbon-based Materials Research
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