Nanoscale cryptographic architecture design using quantum-dot cellular automata

Debnath, Bikash; Das, Jadav Chandra; De, Debashis

doi:10.1631/fitee.1800458

Cited by 12 publications

(13 citation statements)

References 37 publications

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“…KOL data processing mode will not classify data and has a highspeed channel for data transmission, so that data processing can be carried out quickly, but the complexity of data will lead to an increase in the error rate of data processing; The STBA processing mode needs to pass the communication protocol, Make the data processing into the program. First, initialize the data through the pin to generate corresponding shift data, then transfer the shift data into the pin, set the output position of the data and prolong the data processing time, and finally transfer the data into the judging program box to judge whether the data capacity can meet the transmission conditions [38][39][40][41]. The simulation diagram of STBA data processing mode is shown in Figure 2.…”

Section: Data Processing Layermentioning

confidence: 99%

Artificial intelligence technology in electronic communication engineering for medical applications

Lin

Zhang

Jagota³

et al. 2022

The Journal of Engineering

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In order to solve the problem of high frame error rate in electronic communication engineering, the application of artificial intelligence technology in electronic communication engineering is proposed. Taking LPWAN technology in artificial intelligence technology as an example, a new architecture is proposed to improve the security of wireless communication system of internet of things. The architecture is mainly composed of business layer, data processing layer, terminal access layer and communication technology layer. The experimental results show that the system configuration sends four kinds of information transmission instructions of “temperature, light, air pressure and humidity” every 30 s, and the receiving port collects the above command data continuously for 4 h, compared with the traditional architecture (15.6%), and the packet loss rate is 4%, which can effectively improve the throughput and processing efficiency of the system. The designed architecture runs stably, has low bit error rate, and can better support the wireless communication. It is proved that the new architecture with LPWAN technology as an example has large overall capacity and excellent performance of its electronic communication engineering interface. The frame number error rate is greatly reduced and the result of signal frame number is more accurate.

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Section: Data Processing Layermentioning

confidence: 99%

Artificial intelligence technology in electronic communication engineering for medical applications

Lin

Zhang

Jagota³

et al. 2022

The Journal of Engineering

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“…(b) QCA implementation of TRNG circuit [120]. QCA, quantum dot cellular automata; TRNG, true random number generator different aspect of QCA-based cryptographic circuits [5,9,[115][116][117][118][119][120][121][122] are compared in Table 11 in terms of cryptography algorithm, number of QCA cells and area of that circuit.…”

Section: Comparison Studymentioning

confidence: 99%

“…(b) QCA implementation of user authenticator [117]. QCA, quantum dot cellular automata F I G U R E 2 9 (a) Layout of cryptograhic architecture [118]. (b) QCA implementation of cryptograhic architecture [118].…”

Section: T a B L E 8 Truth Table Of Memory Block(m) [5]mentioning

confidence: 99%

Cryptographic models of nanocommunicaton network using quantum dot cellular automata: A survey

Debnath¹,

Das

2021

IET Quantum Communication

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Security of information is an important issue during the transmission of information. The device that performs the encoding and decoding process is called the encoder and decoder, respectively. The major issues to develop such devices are circuit complexity and power dissipation at the nanoscale level. This can be fixed by utilising the features of reversible logic with Quantum dot cellular automata (QCA) device as a promising archetype for an alternative to the traditional transistor-based device. QCA has high protection against side-channel attacks, especially from power analysis attacks. All those features of QCA influence the researchers to explore several QCA-based cryptographic models of nanocommunication for secure data transmission. Here, the existing QCAbased circuits for cryptographic architecture are explored and compared concerning their circuit complexity, device area, and operating speeds. The working principles of each of those existing architectures have been demonstrated in detail. Besides, the embedding of reversible logic in QCA cryptographic architecture is also explored. The architectures are compared in terms of the logic used in the design. Finally, the major key issues are identified and addressed in the context of cryptographic models for future secure data transmission processes.This is an open access article under the terms of the Creative Commons Attribution-NonCommercial-NoDerivs License, which permits use and distribution in any medium, provided the original work is properly cited, the use is non-commercial and no modifications or adaptations are made.

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“…Some of the existing QCA architectures [18,34,39,[55][56][57][58][59][60] are compared with the propose PVA architecture in Table VIII. [34] and [39] are logically reversible whereas the proposed PVA is fully reversible in nature.…”

Section: G Comparison Of Designed Pva Circuit With Existing Qca Archmentioning

confidence: 99%

Reversible Palm Vein Authenticator Design With Quantum Dot Cellular Automata for Information Security in Nanocommunication Network

Debnath

Das

et al. 2020

IEEE Access

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Palm vein pattern recognition is one of the most promising and rapidly developing fields of study in biometrics, which makes it an important solution for identity security in biometrics-based user identification systems. Quantum-dot Cellular Automata is one of the developing fields of nanotechnology which facilitates the creation of nano-scale logical circuits. Irreversible technology has faced some difficulties, such as higher heat energy dissipation. Reversible logic is therefore essential where heat dissipation is almost insignificant. This article proposes QCA design of a reversible circuit for palm vein authentication utilizing the Feynman gate. To produce reversible Feynman gate is designed and used to design the palm vein authenticator circuit. The theoretical values and the results of the simulation correspond to the credibility of the planned circuit. Circuit complexity and the circuit cost, of the circuit, are also estimated. Validation of authenticated users by the proposed authenticator shows its design accuracy as per theoretical values. Energy dissipation is calculated to prove that the proposed design dissipates energy within Lauderer"s limit. Comparison with recent QCA state of the art architectures explores its characteristics.

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Nanoscale cryptographic architecture design using quantum-dot cellular automata

Cited by 12 publications

References 37 publications

Artificial intelligence technology in electronic communication engineering for medical applications

Artificial intelligence technology in electronic communication engineering for medical applications

Cryptographic models of nanocommunicaton network using quantum dot cellular automata: A survey

Reversible Palm Vein Authenticator Design With Quantum Dot Cellular Automata for Information Security in Nanocommunication Network

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