FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W186808752> ?p ?o ?g. }

• W186808752 abstract "A proposed integrated circuit based on quantum-dot cellular automata (QCA) would function as a bit-serial adder. This circuit would serve as a prototype building block for demonstrating the feasibility of quantum-dots computing and for the further development of increasingly complex and increasingly capable quantum-dots computing circuits. QCA-based bit-serial adders would be especially useful in that they would enable the development of highly parallel and systolic processors for implementing fast Fourier, cosine, Hartley, and wavelet transforms. The proposed circuit would complement the QCA-based circuits described in Implementing Permutation Matrices by Use of Quantum Dots (NPO-20801), NASA Tech Briefs, Vol. 25, No. 10 (October 2001), page 42 and Compact Interconnection Networks Based on Quantum Dots (NPO-20855), which appears elsewhere in this issue. Those articles described the limitations of very-large-scale-integrated (VLSI) circuitry and the major potential advantage afforded by QCA. To recapitulate: In a VLSI circuit, signal paths that are required not to interact with each other must not cross in the same plane. In contrast, for reasons too complex to describe in the limited space available for this article, suitably designed and operated QCA-based signal paths that are required not to interact with each other can nevertheless be allowed to cross each other in the same plane without adverse effect. In principle, this characteristic could be exploited to design compact, coplanar, simple (relative to VLSI) QCA-based networks to implement complex, advanced interconnection schemes. To enable a meaningful description of the proposed bit-serial adder, it is necessary to further recapitulate the description of a quantum-dot cellular automation from the first-mentioned prior article: A quantum-dot cellular automaton contains four quantum dots positioned at the corners of a square cell. The cell contains two extra mobile electrons that can tunnel (in the quantum-mechanical sense) between neighboring dots within the cell. The Coulomb repulsion between the two electrons tends to make them occupy antipodal dots in the cell. For an isolated cell, there are two energetically equivalent arrangements (denoted polarization states) of the extra electrons. The cell polarization is used to encode binary information. Because the polarization of a nonisolated cell depends on Coulomb-repulsion interactions with neighboring cells, universal logic gates and binary wires could be constructed, in principle, by arraying QCA of suitable design in suitable patterns. Again, for reasons too complex to describe here, in order to ensure accuracy and timeliness of the output of a QCA array, it is necessary to resort to an adiabatic switching scheme in which the QCA array is divided into subarrays, each controlled by a different phase of a multiphase clock signal. In this scheme, each subarray is given time to perform its computation, then its state is frozen by raising its inter-dot potential barriers and its output is fed as the input to the successor subarray. The successor subarray is kept in an unpolarized state so it does not influence the calculation of preceding subarray. Such a clocking scheme is consistent with pipeline computation in the sense that each different subarray can perform a different part of an overall computation. In other words, QCA arrays are inherently suitable for pipeline and, moreover, systolic computations. This sequential or pipeline aspect of QCA would be utilized in the proposed bit-serial adders." @default.
• W186808752 created "2016-06-24" @default.
• W186808752 creator A5008807318 @default.
• W186808752 creator A5022485459 @default.
• W186808752 creator A5036082600 @default.
• W186808752 creator A5061969946 @default.
• W186808752 date "2003-01-01" @default.
• W186808752 modified "2023-10-01" @default.
• W186808752 title "Bit-Serial Adder Based on Quantum Dots" @default.
• W186808752 hasPublicationYear "2003" @default.
• W186808752 type Work @default.
• W186808752 sameAs 186808752 @default.
• W186808752 citedByCount "11" @default.
• W186808752 countsByYear W1868087522012 @default.
• W186808752 countsByYear W1868087522013 @default.
• W186808752 countsByYear W1868087522014 @default.
• W186808752 countsByYear W1868087522015 @default.
• W186808752 countsByYear W1868087522016 @default.
• W186808752 countsByYear W1868087522018 @default.
• W186808752 crossrefType "journal-article" @default.
• W186808752 hasAuthorship W186808752A5008807318 @default.
• W186808752 hasAuthorship W186808752A5022485459 @default.
• W186808752 hasAuthorship W186808752A5036082600 @default.
• W186808752 hasAuthorship W186808752A5061969946 @default.
• W186808752 hasConcept C11413529 @default.
• W186808752 hasConcept C116523029 @default.
• W186808752 hasConcept C119599485 @default.
• W186808752 hasConcept C123745756 @default.
• W186808752 hasConcept C127413603 @default.
• W186808752 hasConcept C134146338 @default.
• W186808752 hasConcept C14580979 @default.
• W186808752 hasConcept C149635348 @default.
• W186808752 hasConcept C164620267 @default.
• W186808752 hasConcept C173608175 @default.
• W186808752 hasConcept C24326235 @default.
• W186808752 hasConcept C35527583 @default.
• W186808752 hasConcept C41008148 @default.
• W186808752 hasConcept C76155785 @default.
• W186808752 hasConcept C82876162 @default.
• W186808752 hasConceptScore W186808752C11413529 @default.
• W186808752 hasConceptScore W186808752C116523029 @default.
• W186808752 hasConceptScore W186808752C119599485 @default.
• W186808752 hasConceptScore W186808752C123745756 @default.
• W186808752 hasConceptScore W186808752C127413603 @default.
• W186808752 hasConceptScore W186808752C134146338 @default.
• W186808752 hasConceptScore W186808752C14580979 @default.
• W186808752 hasConceptScore W186808752C149635348 @default.
• W186808752 hasConceptScore W186808752C164620267 @default.
• W186808752 hasConceptScore W186808752C173608175 @default.
• W186808752 hasConceptScore W186808752C24326235 @default.
• W186808752 hasConceptScore W186808752C35527583 @default.
• W186808752 hasConceptScore W186808752C41008148 @default.
• W186808752 hasConceptScore W186808752C76155785 @default.
• W186808752 hasConceptScore W186808752C82876162 @default.
• W186808752 hasLocation W1868087521 @default.
• W186808752 hasOpenAccess W186808752 @default.
• W186808752 hasPrimaryLocation W1868087521 @default.
• W186808752 hasRelatedWork W116782577 @default.
• W186808752 hasRelatedWork W1760221819 @default.
• W186808752 hasRelatedWork W1976924286 @default.
• W186808752 hasRelatedWork W1986881964 @default.
• W186808752 hasRelatedWork W1987200288 @default.
• W186808752 hasRelatedWork W2040292516 @default.
• W186808752 hasRelatedWork W2059030116 @default.
• W186808752 hasRelatedWork W2075868831 @default.
• W186808752 hasRelatedWork W2096738483 @default.
• W186808752 hasRelatedWork W2127228405 @default.
• W186808752 hasRelatedWork W2133403974 @default.
• W186808752 hasRelatedWork W2138040286 @default.
• W186808752 hasRelatedWork W2160210493 @default.
• W186808752 hasRelatedWork W2171993146 @default.
• W186808752 hasRelatedWork W2778970970 @default.
• W186808752 hasRelatedWork W2800832437 @default.
• W186808752 hasRelatedWork W2965331927 @default.
• W186808752 hasRelatedWork W624947641 @default.
• W186808752 hasRelatedWork W633265311 @default.
• W186808752 hasRelatedWork W785436116 @default.
• W186808752 isParatext "false" @default.
• W186808752 isRetracted "false" @default.
• W186808752 magId "186808752" @default.
• W186808752 workType "article" @default.