On the performance of quantum cryptographic protocols SARG04 and KMB09

Lopes, Minal; Sarwade, Nisha

doi:10.1109/iccict.2015.7045661

Cited by 11 publications

(7 citation statements)

References 16 publications

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“…Similar findings were reported by Mailloux et al (2015) who concluded that such technologies have resulted in a diverse trade space of design competition and choice of implementation which included many encoding schemes and quantum exchange protocols. The study results were also comparable with the findings of Lopes and Sarwade (2015) who suggested that incorporation of QKD protocol with wireless network improved the system security.…”

Section: Reconciliation-error Correction Cascadesupporting

confidence: 87%

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Quantum Security for University Networks Protection

Zahrani¹

2015

Trends in Applied Sciences Research

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In this era of electronic communication, where computers and other manual devices are sending and receiving messages via wireless networks, security and privacy has always been a fundamental concern. Wireless network is an open medium with air as a transmission media involving radio frequencies which have been easily decode-able since World War II. But, behind every wireless network there is a core network which is normally wired. World has become a global village due to this effective approach of wireless communication. It is an alarming issue now days to secure our core network providing wireless services for home, universities, government and military. Many security protocols have been implemented to secure core networks but there are a great number of security risks associated with the current protocols and encryption methods. Secure information transactions takes place within the limited realms of key encryption and exchange techniques. For secure information transaction, a secret key must be known to both the sender and the receiver hiding it from outside world. This study highlighted the implementation of secure communication of key and successfully addressed the security threats in core network designed for King Faisal University (KFU) accomplished by quantum cryptography. The study also suggested to investigate alternate Quantum Key Distribution (QKD) architectures exploring application of emerging QKD in wireless sensor network and its modeling in a real network.

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Section: Reconciliation-error Correction Cascadesupporting

confidence: 87%

“…Also, efforts were made to blend the security proofs to prove the security of practical implementation prototypes (Wang, 2011). Recently it was proved that QKD protocols can be incorporated with wireless networks to improve their security (Anghel and Coman, 2009;Lopes and Sarwade, 2015).…”

Section: Introductionmentioning

confidence: 99%

Quantum Security for University Networks Protection

Zahrani¹

2015

Trends in Applied Sciences Research

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“…The introduction of ITER and QBER helps in analyzing the performance of the protocol. It has been noticed that the Index Transmission Error Rate shoots up for the photon states in higher dimension very significantly and therefore permits higher tolerance towards noise in the transmission line, which in turn increases the possible distance of QKD [54]. All vectors of one basis are used in this protocol to encode the bit differentiating it from the SARG04 and BB84.…”

Section: Prepare and Measure Protocolsmentioning

confidence: 99%

A Prospective Study of Information -Theoretic and Practical Quantum Key Distribution

Singh

Ahmed

Raghuvanshi

et al. 2022

Preprint

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Most modern cryptographic mechanisms are often based on the key distribution schemes, the security of which depends on the computational complexity and the power used to break the encryption. Quantum Key Distribution (QKD) is gaining popularity as a panacea to the issue of secure key distribution due to its ability to show secret keys' information-theoretic protection that is already suitable for commercialization. The goal is to generate a secret key between trusted parties connected through a quantum channel and an authenticated classical channel. The technology promises unconditional secure communication based on the principles of quantum mechanics without limiting the power of an eavesdropper. The first three sections provide a contemporary review of the Quantum Key Distribution in a nutshell. The remaining part of the paper deals with the key parameters and implementations that have been developed to assess the security of the leading experimental platforms and the challenges with respect to the development of this technology such as optimally overlaying the logic gates via quantum-dot cellular automata, which also creates possible avenues for research in the cryptographic domain.

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“…Numerous researchers have evolved the BB84 protocol into subsequent quantum protocols. A few examples include BB84 [7], Decoy State [8,SARG04 [9], Six-State [10], E91 [11], and KMB09 [12]. The researchers came up with these protocols, and they all adhered to the BB84 protocol.…”

Section: Introductionmentioning

confidence: 99%

Qubit and bit-based quantum hybrid secret key generation

Sihare¹

2022

Eur. Phys. J. D

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For the generation of a secret key, hardly a quantum algorithms integrating states and bits have yet developed. Integrating random states and bits is difficult for a combiner component. The underlying problems of the study are the design of a quantum circuit, an algorithm, state polarization setup, and the concatenation of bits and states. By combining either rectilinear, orthogonal (superposition), or both states with bits, we have investigated three different possibilities for the quantum hybrid protocol. We investigated errors in each case and compared them with regard to decoherence and other quantum mechanics properties by taking into consideration the effectiveness of states during transmission time across an untrusted channel. Furthermore, we observed that key size, state errors, design complexity, and security are all addressed in a reasonable manner for identifying solutions while comparing our results to earlier proposed quantum protocols. Because of this, the suggested key protocol's effectiveness is greater than that of earlier proposed protocols.

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On the performance of quantum cryptographic protocols SARG04 and KMB09

Cited by 11 publications

References 16 publications

Quantum Security for University Networks Protection

Quantum Security for University Networks Protection

A Prospective Study of Information -Theoretic and Practical Quantum Key Distribution

Qubit and bit-based quantum hybrid secret key generation

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