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Journal ArticleDOI

Constructing Online Testable Circuits Using Reversible Logic

TLDR
A novel universal reversible logic gate (URG) and a set of basic sequential elements that could be used for building reversible sequential circuits, with 25% less garbage than the best reported in the literature are proposed.
Abstract
With the advent of nanometer technology, circuits are more prone to transient faults that can occur during its operation. Of the different types of transient faults reported in the literature, the single-event upset (SEU) is prominent. Traditional techniques such as triple-modular redundancy (TMR) consume large area and power. Reversible logic has been gaining interest in the recent past due to its less heat dissipation characteristics. This paper proposes the following: 1) a novel universal reversible logic gate (URG) and a set of basic sequential elements that could be used for building reversible sequential circuits, with 25% less garbage than the best reported in the literature; (2) a reversible gate that can mimic the functionality of a lookup table (LUT) that can be used to construct a reversible field-programmable gate array (FPGA); and (3) automatic conversion of any given reversible circuit into an online testable circuit that can detect online any single-bit errors, including soft errors in the logic blocks, using theoretically proved minimum garbage, which is significantly lesser than the best reported in the literature.

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Citations
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Proceedings ArticleDOI

Online Testing for Three Fault Models in Reversible Circuits

TL;DR: The performance of the proposed approach for detecting a single bit fault, a cross point fault and the family of missing gate faults has been observed and discussion around the correctness of the approach and the overhead is provided.
Journal ArticleDOI

Design of Reversible Random Access Memory

TL;DR: In this paper, the authors proposed a reversible decoder and a write enable reversible master slave D flip-flop for random access memory, which are superior in terms of quantum cost, delay and garbage outputs compared to the existing designs.
Journal ArticleDOI

Computational analysis and comparison of reversible gates for design and test of logic circuits

TL;DR: This paper critically analyses a range of Multiple Controlled Toffoli and Multiple Controlled Fredkin gates to procure an optimal solution for design, synthesis and testing of reversible circuits.
Journal ArticleDOI

A comprehensive analysis on the resilience of adiabatic logic families against transient faults

TL;DR: In this article, a survey of existing adiabatic logic families is presented, and the authors attempt to evaluate their reliability by validating their functionality under the effect of soft errors.
Proceedings ArticleDOI

A DFT methodology targeting online testing of reversible circuit

TL;DR: The methodology proposed for converting a 3×3 reversible gate into an online testable circuit ensures detection of all the stuck-at faults, bit flip faults and almost all multiple bit faults in logic blocks.
References
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Journal ArticleDOI

Irreversibility and heat generation in the computing process

TL;DR: Two simple, but representative, models of bistable devices are subjected to a more detailed analysis of switching kinetics to yield the relationship between speed and energy dissipation, and to estimate the effects of errors induced by thermal fluctuations.
Journal ArticleDOI

Logical reversibility of computation

TL;DR: This result makes plausible the existence of thermodynamically reversible computers which could perform useful computations at useful speed while dissipating considerably less than kT of energy per logical step.
Book

Digital Systems Testing and Testable Design

TL;DR: The new edition of Breuer-Friedman's Diagnosis and Reliable Design ofDigital Systems offers comprehensive and state-ofthe-art treatment of both testing and testable design.
Book

Conservative logic

TL;DR: Conservative logic shows that it is ideally possible to build sequential circuits with zero internal power dissipation and proves that universal computing capabilities are compatible with the reversibility and conservation constraints.
Journal ArticleDOI

Quantum Mechanical Computers

TL;DR: The physical limitations due to quantum mechanics on the functioning of computers are analyzed in this paper, where the physical limitations of quantum mechanics are discussed and the physical limits of quantum computing are analyzed.