Femtosecond Laser Processing for Single NV-Waveguide Integration in Diamond

2017 Conference on Lasers and Electro-Optics Europe & European Quantum Electronics Conference (CLEO/Europe-EQEC)(2017)

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摘要
Diamond is an exceptional material due to its hardness, high thermal conductivity and transparency from the UV to far IR. Recently it has caught the attention of the scientific community because it is the host of different color centers that can be used for magnetic sensing applications and quantum computing [1]. One of the most promising of these defects is the nitrogen-vacancy (NV) center. The electrons of the NV center, largely localized at the vacancy site, combine to form a spin triplet, which can be polarized with 532-nm laser light. The NV's states are isolated from environmental perturbations, making their spin coherence times long even at room temperature. The NVs can be easily initialized, manipulated and read out using light. Therefore, an important breakthrough would be in connecting, using optical waveguides, multiple diamond NVs.
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femtosecond laser processing,single NV-waveguide integration,hardness,thermal conductivity,transparency,UV region,IR region,color centers,magnetic sensing applications,quantum computing,nitrogen-vacancy center,vacancy site,spin triplet,laser light,environmental perturbations,spin coherence times,room temperature,multiple diamond NV,high repetition rate femtosecond laser writing,buried optical waveguides,femtosecond laser pulses,diamond crystal lattice,optical waveguide performance,μRaman spectroscopy,optically detected magnetic resonance,confocal μPhotoluminescence characterization,optical grade diamond,NV centers,laser-written optical waveguides,wavelength 532 nm,C
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