作者
Stefania Sciara, Piotr Roztocki, Bennet Fischer, Christian Reimer, Luis Romero Cortés, William J Munro, David J Moss, Alfonso C Cino, Lucia Caspani, Michael Kues, José Azaña, Roberto Morandotti
发表日期
2021/11/9
来源
Nanophotonics
卷号
10
期号
18
页码范围
4447-4465
出版商
De Gruyter
简介
Multi-level (qudit) entangled photon states are a key resource for both fundamental physics and advanced applied science, as they can significantly boost the capabilities of novel technologies such as quantum communications, cryptography, sensing, metrology, and computing. The benefits of using photons for advanced applications draw on their unique properties: photons can propagate over long distances while preserving state coherence, and they possess multiple degrees of freedom (such as time and frequency) that allow scalable access to higher dimensional state encoding, all while maintaining low platform footprint and complexity. In the context of out-of-lab use, photon generation and processing through integrated devices and off-the-shelf components are in high demand. Similarly, multi-level entanglement detection must be experimentally practical, i.e., ideally requiring feasible single-qudit projections …
引用总数