QuDOS: Quantum technologies using Diffractive Optical Structures

该项目将开发一种紧凑和简化的冷原子样品制备设备。传统上，激光冷却和捕获原子需要多光束几何结构，随之而来的是机械框架内相应的光学元件开销。在这里，我们建议使用一种新的方法，其中所有冷却和俘获所需的光束都是由单个光束和芯片配置产生的。这项技术与量子技术有着广泛的相关性，因为它构成了所有原子传感设备的初级阶段，包括重力仪、惯性传感器和时钟。该项目将斯特拉斯克莱德大学的卓越学术成就与M Squared激光器的工业技术相结合，从英国的研究基地开发这一世界领先的创新。我们将在工业环境中调试芯片捕捉器，增强技术并展示测量能力，从而使其更接近商业化。

The project will develop a compact and simplified apparatus for the preparation of cold atomic samples. Conventionally, a multiple beam geometry is required to laser cool and trap atoms and, with this, comes a corresponding overhead of optical components within a mechanical framework. Here, we propose to use a novel approach in which all the beams required for cooling and trapping are generated by a single beam and chip configuration. The technique has wide relevance to quantum technologies as it forms the primary stage for all atomic sensing devices including gravimeters, inertial sensors and clocks. The project brings the academic excellence of the University of Strathclyde together with the industrial knowhow of M Squared Lasers to exploit this world-leading innovation from the UK's research base. We will take it closer to commercialisation by commissioning a chip trap within an industrial environment, enhancing the technique and demonstrating measurement capability.