Optical Networking for Quantum Key Distribution and Quantum
We successfully operate QKD at 1310 nm over a fibre shared with four optically amplified data channels near 1550 nm. We identify the dominant impairment as spontaneous anti-Stokes Raman...
In this paper we present such a phase synchronization scheme for a metropolitan quantum network, operating in the low-loss telecom L band. To overcome various challenges such as communication delays and optical power lim...
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We successfully operate QKD at 1310 nm over a fibre shared with four optically amplified data channels near 1550 nm. We identify the dominant impairment as spontaneous anti-Stokes Raman...
The paper proposes an optimized and secure optical transmission in quantum wells to overcome these limitations using OAM and advanced modulation approaches.
Here, we propose a passive optical power limiter device based on thermo-optical defocusing effects, providing a reliable power limiting threshold that can be readily adjusted to suit...
We then introduce two important forms of quantum secure communication, i.e. the quantum key distribution and quantum direct communication. This is followed by a review of the state of art
In this paper, we present an integrated optics circuit using multi-mode waveguides to implement QKD for qubits and HD QKD for qudits. Our system demonstrates a successful
In this work, we focus on the lowest layers of communication for quantum networks, and explore potential quantum equivalents for MAC addresses and network address translation.
Here, quantum interference phenomena in Wilkinson power dividers (WPDs), a popular element of microwave networks, is investigated.
Abstract: Quantum key distribution (QKD) has been identified as a secure method for providing symmetric keys between two parties based on the fundamental laws of quantum physics, making it
This program will study innovative architectures for quantum optical nodes and networks that will enable co-existence of classical and quantum channels across the network.
In this work we propose, implement, and verify an optical phase-synchronization scheme between remote and independent quantum nodes operating in the telecom band.