List of Cryptography IEEE 2015 Projects. It Contains the IEEE Projects in the Domain Cryptography for the year 2015

1. Cryptography IEEE 2015 Projects
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List Link : http://kasanpro.com/projects-list/cryptography-ieee-2015-projects
Title :Differential Phase-Shift Quantum Key Distribution Systems
Language : C#
Project Link : http://kasanpro.com/p/c-sharp/differential-phase-shift-quantum-key-distribution-system
Abstract : Differential phase-shift (DPS) quantum key distribution (QKD) is a unique QKD protocol that is different
from traditional ones, featuring simplicity and practicality. This paper overviews DPS-QKD systems.
Title :Differential Phase-Shift Quantum Key Distribution Systems
Language : Java
Project Link : http://kasanpro.com/p/java/differential-phase-shift-quantum-key-distribution-systems
Abstract : Differential phase-shift (DPS) quantum key distribution (QKD) is a unique QKD protocol that is different
from traditional ones, featuring simplicity and practicality. This paper overviews DPS-QKD systems.
Title :Safeguarding Quantum Key Distribution Through Detection Randomization
Language : Java
Project Link : http://kasanpro.com/p/java/safeguarding-quantum-key-distribution-through-detection-randomization
Abstract : We propose and experimentally demonstrate a scheme to render the detection apparatus of a quantum
key distribution system immune to the main classes of hacking attacks in which the eavesdropper explores the
back-door opened by the single-photon detectors. The countermeasure is based on the creation of modes that are not
deterministically accessible to the eavesdropper. We experimentally show that the use of beamsplitters and extra
single-photon detectors at the receiver station passively creates randomized spatial modes that erase any knowledge
the eavesdropper might have gained when using bright-light faked states. Additionally, we experimentally show a
detectorscrambling approach where the random selection of the detector used for each measurement--equivalent to
an active spatial mode randomization--hashes out the side-channel open by the detection efficiency mismatch-based
attacks. The proposed combined countermeasure represents a practical and readily implementable solution against
the main classes of quantum hacking attacks aimed on the single-photon detector so far, without intervening on the
inner working of the devices.
Cryptography IEEE 2015 Projects
Title :Safeguarding Quantum Key Distribution Through Detection Randomization
Language : C#
Project Link : http://kasanpro.com/p/c-sharp/quantum-key-distribution-safeguarding-through-detection-randomization
Abstract : We propose and experimentally demonstrate a scheme to render the detection apparatus of a quantum
key distribution system immune to the main classes of hacking attacks in which the eavesdropper explores the
back-door opened by the single-photon detectors. The countermeasure is based on the creation of modes that are not
deterministically accessible to the eavesdropper. We experimentally show that the use of beamsplitters and extra
single-photon detectors at the receiver station passively creates randomized spatial modes that erase any knowledge
the eavesdropper might have gained when using bright-light faked states. Additionally, we experimentally show a
detectorscrambling approach where the random selection of the detector used for each measurement--equivalent to
an active spatial mode randomization--hashes out the side-channel open by the detection efficiency mismatch-based
attacks. The proposed combined countermeasure represents a practical and readily implementable solution against
the main classes of quantum hacking attacks aimed on the single-photon detector so far, without intervening on the
inner working of the devices.
Title :Postprocessing of the Oblivious Key in Quantum Private Query
Language : C#
Project Link : http://kasanpro.com/p/c-sharp/postprocessing-oblivious-key-quantum-private-query
Abstract : Private query is a kind of cryptographic protocols to protect both users' privacies in their communication.
For instance, Alice wants to buy one item from Bob's database. The aim of private query is to ensure that Alice can
get only one item from Bob, and simultaneously, Bob cannot know which one was taken by Alice. In pursuing high
security and efficiency, some quantum private query protocols were proposed. As a practical model, Quantum-
Oblivious-Key-Transfer (QOKT)-based private query, which utilizes a QOKT protocol to distribute oblivious key
between Alice and Bob and then applies the key to achieve the aim of private query, has drawn much attention. Here,
we focus on postprocessing of the oblivious key, and the following two contributions are achieved. 1) We analyze
three recently proposed dilution methods and find two of them have serious security loophole. That is, Alice can
illegally obtain much additional information about Bob's database by multiple queries. For example, Alice can obtain

2. the whole database, which contains 104 items, by only 53.4 queries averagely. 2) We present an effective
error-correction method for the oblivious key, which can address the realistic scenario with channel noises and make
QOKT-based private query more practical.
Title :Postprocessing of the Oblivious Key in Quantum Private Query
Language : Java
Project Link : http://kasanpro.com/p/java/oblivious-key-postprocessing-quantum-private-query
Abstract : Private query is a kind of cryptographic protocols to protect both users' privacies in their communication.
For instance, Alice wants to buy one item from Bob's database. The aim of private query is to ensure that Alice can
get only one item from Bob, and simultaneously, Bob cannot know which one was taken by Alice. In pursuing high
security and efficiency, some quantum private query protocols were proposed. As a practical model, Quantum-
Oblivious-Key-Transfer (QOKT)-based private query, which utilizes a QOKT protocol to distribute oblivious key
between Alice and Bob and then applies the key to achieve the aim of private query, has drawn much attention. Here,
we focus on postprocessing of the oblivious key, and the following two contributions are achieved. 1) We analyze
three recently proposed dilution methods and find two of them have serious security loophole. That is, Alice can
illegally obtain much additional information about Bob's database by multiple queries. For example, Alice can obtain
the whole database, which contains 104 items, by only 53.4 queries averagely. 2) We present an effective
error-correction method for the oblivious key, which can address the realistic scenario with channel noises and make
QOKT-based private query more practical.
Cryptography IEEE 2015 Projects