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K. Waluś, V. Dimitrov, G. Jullien (2003)
QCADesigner: A CAD Tool for an Emerging Nano-Technology
Wenchuang Hu, K. Sarveswaran, M. Lieberman, Gary Bernstein (2005)
High-resolution electron beam lithography and DNA nano-patterning for molecular QCAIEEE Transactions on Nanotechnology, 4
P. Tougaw, C. Lent (1994)
Logical devices implemented using quantum cellular automataJournal of Applied Physics, 75
C. Lent, P. Tougaw (1997)
A device architecture for computing with quantum dotsProc. IEEE, 85
E. Debenedictis (2005)
Reversible logic for supercomputing
K. Hennessy, C. Lent (2001)
Clocking of molecular quantum-dot cellular automataJournal of Vacuum Science & Technology B, 19
(2007)
Received July
J. Jiao, G. Long, F. Grandjean, A. Beatty, T. Fehlner (2003)
Building blocks for the molecular expression of quantum cellular automata. Isolation and characterization of a covalently bonded square array of two ferrocenium and two ferrocene complexes.Journal of the American Chemical Society, 125 25
J. Timler, C. Lent (2002)
Power gain and dissipation in quantum-dot cellular automataJournal of Applied Physics, 91
Montek Singh, S. Nowick (2010)
ACM Journal on Emerging Technologies in Computing SystemsACM Trans. Design Autom. Electr. Syst., 16
C. Ungarelli, S. Francaviglia, M. Macucci, G. Iannaccone (1999)
Thermal behavior of quantum cellular automaton wiresJournal of Applied Physics, 87
ICCAD 2006 special issue on New, Emerging, and Specialized Technologies 20YY. · 19
M. Niemier, M. Crocker, X. Hu, M. Lieberman (2006)
Using CAD to Shape Experiments in Molecular QCA2006 IEEE/ACM International Conference on Computer Aided Design
A. Imre, G. Csaba, L. Ji, A. Orlov, G. Bernstein, W. Porod (2006)
Majority Logic Gate for Magnetic Quantum-Dot Cellular AutomataScience, 311
E. Winfree, Furong Liu, L. Wenzler, N. Seeman (1998)
Design and self-assembly of two-dimensional DNA crystalsNature, 394
Yuliang Wang, M. Lieberman (2004)
Thermodynamic behavior of molecular-scale quantum-dot cellular automata (QCA) wires and logic devicesIEEE Transactions on Nanotechnology, 3
T. LaBean, Sungsik Park, Seungbae Ahn, J. Reif (2005)
Stepwise DNA self-assemby of fixed-size nanostructures
(2008)
Article 9, Publication date
(2000)
Molecular QCA Design with Chemically Reasonable Constraints
P. Rothemund (2005)
Design of DNA origamiICCAD-2005. IEEE/ACM International Conference on Computer-Aided Design, 2005.
C. Creutz, H. Taube (1973)
Binuclear complexes of ruthenium amminesJournal of the American Chemical Society, 95
M. Niemier, P. Kogge (2001)
Exploring and exploiting wire-level pipelining in emerging technologiesProceedings 28th Annual International Symposium on Computer Architecture
Hua Qi, S. Sharma, Z. Li, G. Snider, A. Orlov, C. Lent, T. Fehlner (2003)
Molecular quantum cellular automata cells. Electric field driven switching of a silicon surface bound array of vertically oriented two-dot molecular quantum cellular automata.Journal of the American Chemical Society, 125 49
D. Hurley, Y. Tor (2002)
Ru(II) and Os(II) nucleosides and oligonucleotides: synthesis and properties.Journal of the American Chemical Society, 124 14
J. Le, Y. Pinto, N. Seeman, K. Musier-Forsyth, A. Taton, R. Kiehl (2004)
DNA-Templated Self-Assembly of Metallic Nanocomponent Arrays on a SurfaceNano Letters, 4
G. Snider, A. Orlov, I. Amlani, G. Bernstein, C. Lent, J. Merz, W. Porod (1999)
Quantum-Dot Cellular Automata: Line and Majority Logic GateJapanese Journal of Applied Physics, 38
Amitabh Chaudhary, D. Chen, Kevin Whitton, M. Niemier, R. Ravichandran (2005)
Eliminating wire crossings for molecular quantum-dot cellular automata implementationICCAD-2005. IEEE/ACM International Conference on Computer-Aided Design, 2005.
I. Amlani, A. Orlov, G. Snider, C. Lent, G. Bernstein (1998)
Demonstration of a functional quantum-dot cellular automata cellJournal of Vacuum Science & Technology B, 16
P. Rothemund, N. Papadakis, E. Winfree (2004)
Algorithmic Self-Assembly of DNA Sierpinski TrianglesPLoS Biology, 2
In this article we examine the impacts of the fundamental constraints required for circuits and systems made from molecular Quantum-dot Cellular Automata (QCA) devices. Our design constraints are “chemically reasonable” in that we consider the characteristics and dimensions of devices and scaffoldings that have actually been fabricated. This work is a necessary first step for any work in QCA CAD, and can also help shape experiments in the physical sciences for emerging, nano-scale devices. Our work shows that QCA circuits, scaffoldings, substrates, and devices should all be considered simultaneously. Otherwise, there is a very real possibility that the devices and scaffoldings that are eventually manufactured will result in devices that only work in isolation. “Chemically reasonable” also means that expected manufacturing defects must be considered. In our simulations we introduce defects associated with self-assembled systems into various designs to begin to define manufacturing tolerances. This work is especially timely as experimentalists are beginning to work on merging experimental tracks that address devices and scaffolds—and the end result should facilitate correct logical operations.
ACM Journal on Emerging Technologies in Computing Systems (JETC) – Association for Computing Machinery
Published: Apr 1, 2008
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