Mosaics of Combinatorial Designs for Semantic Security on Quantum Wiretap Channels

02/10/2022
by   Holger Boche, et al.
0

We study semantic security for classical-quantum channels. Our security functions are functional forms of mosaics of combinatorial designs. We extend methods for classical channels to classical-quantum channels to demonstrate that mosaics of designs ensure semantic security for classical-quantum channels, and are also capacity achieving coding scheme. The legitimate channel users share an additional public resource, more precisely, a seed chosen uniformly at random. An advantage of these modular wiretap codes is that we provide explicit code constructions that can be implemented in practice for every channels, giving an arbitrary public code.

READ FULL TEXT

page 1

page 2

page 3

page 4

research
01/16/2020

Semantic Security for Quantum Wiretap Channels

We determine the semantic security capacity for quantum wiretap channels...
research
02/01/2021

Mosaics of combinatorial designs for information-theoretic security

We study security functions which can serve to establish semantic securi...
research
05/16/2022

Semantic Security with Infinite Dimensional Quantum Eavesdropping Channel

We propose a new proof method for direct coding theorems for wiretap cha...
research
11/15/2019

Weak approximate unitary designs and applications to quantum encryption

Unitary t-designs are the bread and butter of quantum information theory...
research
01/17/2022

Commitment capacity of classical-quantum channels

We study commitment scheme for classical-quantum channels. To accomplish...
research
11/26/2021

Advantage of the key relay protocol over secure network coding

The key relay protocol (KRP) plays an important role in improving the pe...
research
08/13/2020

Experimental demonstrations of unconditional security in a purely classical regime

So far, unconditional security in key distribution processes has been co...

Please sign up or login with your details

Forgot password? Click here to reset