Superconducting weak links in next generation ultrafast and low power electronics for control and readout of quantum resonators arrays

用于控制和读出量子谐振器阵列的下一代超快低功率电子器件中的超导薄弱环节

• 批准号: 2813045
• 金额: --
• 依托单位: University of Glasgow
• 依托单位国家: 英国
• 项目类别: Studentship
• 财政年份: 2020
• 资助国家: 英国
• 起止时间: 2020 至 无数据
• 项目状态: 未结题
• 来源: https://gtr.ukri.org/projects?ref=studentship-2813045
• 关键词: Superconducting; weak; links; next; generation

Superconducting technology represents a rapidly advancing field and applications of the technology have been demonstrated by tech giants such as Google with their recent 53-qubit quantum computer. Currently, much of the signal detection of quantum resonators is carried out at cryogenic temperatures, while readout electronics and signal processing is carried out at lab temperatures. This requires individual cables for each component introducing an increased thermal load as complexity increases, representing a major roadblock in the complexity of quantum devices that can be achieved with such a readout scheme.By implementing control and readout circuits within the cryogenic stage; the size of resonator array that can be addressed and controlled will be exponentially increased. The ability to build resonator arrays with thousands of components is crucial for the advancement of superconducting technologies; allowing for dramatic improvements in processing power and computing speeds in quantum computers as well as the upscaling of superconducting single photon detector arrays for implementation in quantum-secure communications and LIDAR systems.

超导技术代表了一个快速发展的领域，该技术的应用已经由谷歌等科技巨头通过其最近的53量子位量子计算机进行了展示。目前，量子谐振器的大部分信号检测是在低温下进行的，而读出电子设备和信号处理是在实验室温度下进行的。这就要求每个组件都有单独的电缆，随着复杂性的增加，热负载也会增加，这是量子器件复杂性的主要障碍。通过在低温阶段实现控制和读出电路，可以寻址和控制的谐振器阵列的大小将呈指数级增加。构建具有数千个组件的谐振器阵列的能力对于超导技术的进步至关重要;允许量子计算机的处理能力和计算速度的显着提高，以及超导单光子探测器阵列的升级，以实现量子安全通信和激光雷达系统。