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Yeo, I., de Assis, P.L., Gloppe, A., Dupont-Ferrier, E., Verlot, P., Malik, N.S., Dupuy, E., Claudon, J., Grard, J.M., Auffives, A., Nogues, G., Seidelin, S., Poizat, J.-P., Arcizet, O. and Richard, M. (2014) Nature Nanotechnology, 9, 106.
https://doi.org/10.1038/nnano.2013.274

has been cited by the following article:

• TITLE: Microscale Crystalline Rare-Earth Doped Resonators for Strain-Coupled Optomechanics

  AUTHORS: Jean-François Motte, Nicolas Galland, Jérôme Debray, Alban Ferrier, Philippe Goldner, Nemenja Lučić, Shuo Zhang, Bess Fang, Yann Le Coq, Signe Seidelin

  KEYWORDS: Rare-Earth Doped Crystals, Mechanical Resonators, Optomechanics, Quantum Physics, Strain-Coupling, Spectral Hole Burning, Focused-Ion-Beam Etching Techniques

  JOURNAL NAME: Journal of Modern Physics, Vol.10 No.11, October 12, 2019

  ABSTRACT: Rare-earth ion doped crystals for hybrid quantum technologies are an area of growing interest in the solid-state physics community. We have earlier theoretically proposed a hybrid scheme of a mechanical resonator which is fabricated out of a rare-earth doped mono-crystalline structure. The rare-earth ion dopants have absorption energies which are sensitive to crystal strain, and it is thus possible to couple the ions to the bending motion of the crystal cantilever. This type of resonator can be useful for either investigating the laws of quantum physics with material objects or for applications such as sensitive force-sensors. Here, we present the design and fabrication method based on focused-ion-beam etching techniques which we have successfully employed in order to create such microscale resonators, as well as the design of the environment which will allow studying the quantum behavior of the resonators.