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Contributed Review: The feasibility of a fully miniaturized magneto-optical trap for portable ultracold quantum technology

机译:投稿评论:用于便携式超冷量子技术的全小型磁光阱的可行性

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摘要

Experiments using laser cooled atoms and ions show real promise for practical applications in quantum-enhanced metrology, timing, navigation, and sensing as well as exotic roles in quantum computing, networking, and simulation. The heart of many of these experiments has been translated to microfabricated platforms known as atom chips whose construction readily lend themselves to integration with larger systems and future mass production. To truly make the jump from laboratory demonstrations to practical, rugged devices, the complex surrounding infrastructure (including vacuum systems, optics, and lasers) also needs to be miniaturized and integrated. In this paper we explore the feasibility of applying this approach to the Magneto-Optical Trap; incorporating the vacuum system, atom source and optical geometry into a permanently sealed micro-litre system capable of maintaining 10 mbar for more than 1000 days of operation with passive pumping alone. We demonstrate such an engineering challenge is achievable using recent advances in semiconductor microfabrication techniques and materials.
机译:使用激光冷却的原子和离子进行的实验显示了在量子增强的计量,定时,导航和传感以及量子计算,网络和仿真中的奇特作用中的实际应用的真正前景。这些实验的许多核心已转化为称为原子芯片的微制造平台,其结构易于与大型系统集成并实现未来的批量生产。为了真正从实验室演示过渡到实用,坚固的设备,复杂的周围基础设施(包括真空系统,光学器件和激光器)也需要小型化和集成。在本文中,我们探讨了将该方法应用于磁光阱的可行性。将真空系统,原子源和光学几何结构整合到永久密封的微升系统中,该系统仅通过被动泵浦即可维持10毫巴的压力,可运行1000天以上。我们证明使用半导体微细加工技术和材料的最新进展可以实现这样的工程挑战。

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