Enhancing and Isolating Lanthanide-Doped Nanocrystals Using Double Nanohole Optical Tweezers for Quantum Light Sources at 1550 nm

Zohreh Sharifi, Michael Dobinson, G. Hajisalem, A. Frencken, F. V. van Veggel, R. Gordon
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Abstract

Quantum technologies require sources of single photons, which can be created by isolating individual atoms or ions. Erbium ions are a promising choice for single photon sources as it emits photons at low-loss fiber optic wavelengths. However, erbium has a low emission rate and it is challenging to isolate single emitters reliably. Here, we isolate singly Er3+-doped nanocrystals using optical tweezers in a gold double nanohole aperture. The double nanohole geometry enhances the emission rate from the nanocrystals. With this additional enhancement we observe emission at 1550 nm. Discrete levels of emission from dilutely Er3+-doped nanocrystals are observed—corresponding to the number of active erbium emitters present. Nanocrystals with single active emitters were identified and isolated with this technique, demonstrating a path towards single emitter sources at 1550 nm.
1550 nm量子光源用双纳米孔光镊增强和隔离镧系掺杂纳米晶体
量子技术需要单光子源,这可以通过分离单个原子或离子来产生。铒离子作为单光子源是一种很有前途的选择,因为它能以低损耗的光纤波长发射光子。然而,铒的发射率很低,并且很难可靠地分离出单一的发射体。在这里,我们使用光学镊子在金双纳米孔孔径中分离出单掺杂Er3+的纳米晶体。双孔结构提高了纳米晶体的发射速率。通过这种额外的增强,我们观察到1550 nm的发射。从稀释Er3+掺杂纳米晶体中观察到离散水平的发射-对应于存在的活性铒发射体的数量。利用该技术鉴定和分离了具有单主动发射源的纳米晶体,并在1550 nm处展示了通向单发射源的路径。
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