User Authentication Based on Quantum-Dot Cellular Automata Using Reversible Logic for Secure Nanocommunication

Das, Jadav Chandra; De, Debashis

doi:10.1007/s13369-015-1870-z

Cited by 35 publications

(19 citation statements)

References 31 publications

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“…Two inputs INP1 and INP2 are mapped along with two outputs OUT2 and OUT1. The relation between the inputs and the outputs are given by the expressions (2) and 3 Formerly logically reversible QCA Feynman is designed in [39,40] using standard majority gate as displayed in Fig. 3(a).…”

Section: Architecture For the Proposed Methods A Qca Feynman Gatementioning

confidence: 99%

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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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Section: Architecture For the Proposed Methods A Qca Feynman Gatementioning

confidence: 99%

“…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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“…The outlined QCA design of Fredkin circuit is compared with the existing designs [19,[32][33][34][35][36][37] as presented in Table 2. The outlined Fredkin circuit has 30.38, 28 and 57.14% enhancements over [19] while over [36], the enhancements are 69.10, 68.97, 85 and 25%, in terms of overall cell, cell area, total area and latency respectively.…”

Section: Intricacy Study and Comparison Analysis Of Proposed Fredmentioning

confidence: 99%

“…The assessment evidently defines that the outlined circuit is faster and enhanced than that of the existing ones. Design [19] Design [37] Design [36] Design [32. 34] Design [33] Design [35] Latency Area usage…”

Section: Intricacy Study and Comparison Analysis Of Proposed Fredmentioning

confidence: 99%

Fredkin Circuit in Nanoscale: A Multilayer Approach

Abdullah-Al-Shafi¹,

Bahar²

2018

IJITCS

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Nanotechnologies, exceedingly Quantum-dot Cellular Automata (QCA), presents a notable perception for upcoming nanocomputing. Feature extent of circuits is moving to sub-micron point that produces the sophisticated device intricacies. In this work, QCA is considered as an application technique for reversible logic. A multi-layer reversible Fredkin circuit is proposed with QCA nanotechnology. The accomplishment of the outlined circuit is substantiated with five existing Fredkin gate, which exhibits from 71.20% to 37.50% improvement in term of cell intricacy. The proposed design uses 55 cells concerning only 0.03 μm 2 area and latency is 0.75. The power consumption by the proposed circuit is also presented in this literature. The proposed design has been realized with QCADesigner version 2.0.3.

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“…Quantum dots are the basic element for a QCA cell as shown in Fig. 1 [15][16][17][18][19]. The surrounding of dot is an insulating material.…”

Section: Qca Overviewmentioning

confidence: 99%

Qca Based Secure Nanocommunication Block Cipher Design Based on Electronic Code Book

Das

2018

MJCS

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In nanotechnology, Quantum Dot-Cellular Automata (QCA) is a new paradigm that can serve as an alternative to CMOS circuits. In comparison to CMOS, QCA has lower device area and faster processing power with an overall low energy consumption. The complexity of cryptographic architecture is a key issue in terms of circuit density and power dissipation.Moreover, security is the major issue in nanocommunication systems. Those issues can be overcome through QCA technology. To date, only few applications of QCA have been explored in the field of cryptography. This paper illustrates the QCA design and implementation of block cipher based on electronic code book (ECB). An encoder circuit, which can function as decoder for ECB is proposed. The design requires only 0.095 μm 2 area and a latency value of 0.75. The circuit dissipates very low energy which is established through calculation of power dissipation. Due to inherent characteristics, side channel attacks like power analysis attack can be prohibited using proposed circuit. The circuit is implemented on QCA Designer platform and the design accuracy is verified via simulation results.

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User Authentication Based on Quantum-Dot Cellular Automata Using Reversible Logic for Secure Nanocommunication

Cited by 35 publications

References 31 publications

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

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

Fredkin Circuit in Nanoscale: A Multilayer Approach

Qca Based Secure Nanocommunication Block Cipher Design Based on Electronic Code Book

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