论文标题
2022量子技术材料的路线图
2022 Roadmap for Materials for Quantum Technologies
论文作者
论文摘要
量子技术有望将量子物理学的基本原理转移到应用的最前沿。该路线图确定了一些主要挑战,并提供了有关一系列令人兴奋的量子技术领域基础的材料创新的见解。在过去的几十年中,实现不同量子技术的硬件平台达到了不同水平的成熟度。这允许量子至上的初步证明,例如量子计算机超过其经典的对应物,量子通信与量子力学定律保证的可靠安全性以及量子传感器的可靠安全性以及统一高灵敏度的优势,高空间分辨率,高空间分辨率和小脚印。但是,在所有情况下,将这些技术推向相关环境中的下一个应用程序需要进一步的开发和基础材料的创新。从大量的硬件平台中,我们在当前研究的量子技术中选择了代表和有前途的材料系统。其中包括固有的量子位系统以及扮演支持或启用角色的材料,以及覆盖被困的离子,中性原子阵列,稀土离子系统,硅的供体,颜色中心和宽带间隙材料中的缺陷,二维材料和超电材料的单杆侦探材料。推进这些材料边界将需要从多元化的科学专业知识社区中进行创新,因此,该路线图将引起广泛的学科。
Quantum technologies are poised to move the foundational principles of quantum physics to the forefront of applications. This roadmap identifies some of the key challenges and provides insights on materials innovations underlying a range of exciting quantum technology frontiers. Over the past decades, hardware platforms enabling different quantum technologies have reached varying levels of maturity. This has allowed for first proof-of-principle demonstrations of quantum supremacy, for example quantum computers surpassing their classical counterparts, quantum communication with reliable security guaranteed by laws of quantum mechanics, and quantum sensors uniting the advantages of high sensitivity, high spatial resolution, and small footprints. In all cases, however, advancing these technologies to the next level of applications in relevant environments requires further development and innovations in the underlying materials. From a wealth of hardware platforms, we select representative and promising material systems in currently investigated quantum technologies. These include both the inherent quantum bit systems as well as materials playing supportive or enabling roles, and cover trapped ions, neutral atom arrays, rare earth ion systems, donors in silicon, color centers and defects in wide-band gap materials, two-dimensional materials and superconducting materials for single-photon detectors. Advancing these materials frontiers will require innovations from a diverse community of scientific expertise, and hence this roadmap will be of interest to a broad spectrum of disciplines.