Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret string to two distant users by typically making use of one-way quantum channel. However, alternative protocols exploiting two-way quantum channel have been proposed for the same goal and with potential advantages. Here, we overview a security proof for two-way quantum key distribution protocols, against the most general eavesdropping attack, that utilize an entropic uncertainty relation. Then, by resorting to the smooth version of involved entropies, we extend such a proof to the case of finite key size. The results will be compared to those available for one-way protocols showing some advantages
We provide a general formalism to characterize the cryptographic properties of quantum channels in t...
Quantum cryptography makes use of the quantum-mechanical behavior of nature for the design and analy...
Quantum key distribution (QKD), another name for quantum cryptography, is the most advanced subfield...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Despite enormous theoretical and experimental progress in quantum cryptography, the security of most...
International audienceIn this work we present a security analysis for quantum key distribution, esta...
In this work we present a security analysis for quantum key distribution, establishing a rigorous tr...
The security of quantum key distribution protocols is guaranteed by the laws of quantum mechanics. H...
We provide a general formalism to characterize the cryptographic properties of quantum channels in t...
Quantum cryptography makes use of the quantum-mechanical behavior of nature for the design and analy...
Quantum key distribution (QKD), another name for quantum cryptography, is the most advanced subfield...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum cryptographic protocols solve the longstanding problem of distributing a shared secret strin...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Quantum key distribution protocols typically make use of a one-way quantum channel to distribute a s...
Despite enormous theoretical and experimental progress in quantum cryptography, the security of most...
International audienceIn this work we present a security analysis for quantum key distribution, esta...
In this work we present a security analysis for quantum key distribution, establishing a rigorous tr...
The security of quantum key distribution protocols is guaranteed by the laws of quantum mechanics. H...
We provide a general formalism to characterize the cryptographic properties of quantum channels in t...
Quantum cryptography makes use of the quantum-mechanical behavior of nature for the design and analy...
Quantum key distribution (QKD), another name for quantum cryptography, is the most advanced subfield...