Rodney Van Meter
Analyzing Applications for Quantum Repeater NetworksAbstract
The technology for quantum networks is developing rapidly in the
laboratory, but even if we can build networks, will they be useful?
Will a true Quantum Internet have the market pull necessary to develop
an industry? This will be determined by the availability of attractive
applications, which I will present in this talk.
I divide the applications of quantum communications into three categories: quantum cryptographic functions, quantum sensor networks, and distributed quantum computation. Some of these functions are drop-in replacements for existing, classical functionality, with additional, desirable characteristics. At least one of the most exciting is an entirely new capability brought by quantum computation: blind computation, in which a server executing an application learns nothing about the input data, output results, or even the algorithm being executed. I will discuss the demands that quantum key distribution, quantum Byzantine agreement, quantum interferometry, and blind quantum computation will make on large-scale quantum repeater networks. We will sketch out an evolutionary path that runs from a few Bell pairs per second through 1e11 Bell pairs per second, as repeater networks take on increasingly demanding applications.
Rodney Van Meter's bio
I divide the applications of quantum communications into three categories: quantum cryptographic functions, quantum sensor networks, and distributed quantum computation. Some of these functions are drop-in replacements for existing, classical functionality, with additional, desirable characteristics. At least one of the most exciting is an entirely new capability brought by quantum computation: blind computation, in which a server executing an application learns nothing about the input data, output results, or even the algorithm being executed. I will discuss the demands that quantum key distribution, quantum Byzantine agreement, quantum interferometry, and blind quantum computation will make on large-scale quantum repeater networks. We will sketch out an evolutionary path that runs from a few Bell pairs per second through 1e11 Bell pairs per second, as repeater networks take on increasingly demanding applications.
Rodney Van Meter's bio