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Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE

Frequency-coded quantum key distribution using amplitude-phase modulation

Oleg Nikolaevich Granichin, M Gabdulkhakov Il'daris, A Morozov Gennady, R. Aida, M Sarvarova Lutsia

Published Jan 1, 2016• 0 citations
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Design principals of universal microwave photonics system for quantum key distribution with frequency coding are concerned. Its concept is based on the possibility of creating the multi-functional units to implement the most commonly used technologies of frequency coding: amplitude, phase and combined amplitude-phase modulation and re-modulation of optical carrier. The characteristics of advanced systems based on classical approaches and prospects of their development using a combination of amplitude modulation and phase commutation are discussed. These are the valuations how to build advanced systems with frequency coding quantum key distribution, including at their symmetric and asymmetric constructions, using of the mechanisms of the photon polarization states passive detection, based on the filters for wavelength division multiplexing of modulated optical carrier side components.
The technology of frequency coding in channels of quantum key distribution allows to determine the ground state of photons through the value of the amplitude of its carrier, frequency modulated in phase (PM) or amplitude (AM) by a radio-frequency signal, and the resulting side components. Over the past twenty years, it has been substantially modified and improved. At the same time, in recent works, an expanded understanding of the frequency coding principle is used, in which each photon state is associated not with the phase of the modulating signal at a certain frequency, but with one or more sideband frequencies or the carrier frequency of the photon itself. In this paper, we present the results of constructing a frequency coding system of quantum key distribution (QKD) based on the serial electro-optical photon amplitude modulation and phase commutation. The possibility of reducing the probability of achieving a positive result in PNS attacks by Eva is shown by eliminating the carrier of the signal transmitted via the quantum channel from the structure of the key distribution. It was early noted, that the smallest value of QBER is achieved in schemes with a passive definition of one or two basic states of a photon, i.e. without the use of remodulation processes, that is realized in considering. Additionally it is not necessary to form a notch filter system, which is usually carried out using fiber Bragg gratings (FBG) or arrayed waveguide gratings (AWG) for discrimination the photon carrier and its sideband components.
Frequency coding has been presented as a new alternative for qubits transmission on QKD systems. In this work we present an analysis of the different possibilities for modulation (amplitude or phase) in face of the BB84 and B92 protocols within systems employing frequency coding. It will be shown that schemes employing phase modulation both at Alice and Bob (PM-PM) are equivalent, in the sense that the classical BB84 protocol cannot be applied, to schemes using solely amplitude modulation (AM-AM). We present a new modulation scheme employing a combination of phase and amplitude modulation (AM-PM) which can accommodate classical BB84.