Computer Science
Scientific paper
Aug 1994
adsabs.harvard.edu/cgi-bin/nph-data_query?bibcode=1994jbis...47..331g&link_type=abstract
British Interplanetary Society, Journal (ISSN 0007-094X), vol. 47, no. 8, p. 331-333
Computer Science
Computer Design, Electric Connectors, Energy Dissipation, Integrated Circuits, Microminiaturization, Microminiaturized Electronic Devices, Neural Nets, Quantum Electrodynamics, Quantum Electronics, Scanning Tunneling Microscopy, Dipole Moments, Electric Fields, Magnetic Fields
Scientific paper
The present time Scanning Tunneling Microscope (STM) techniques allow quantum confinement nanostructures to be formed which act as electronic components arrangeable into nanoscale sets, which can be operated as extremely large integration neural nets of up to 10(exp 9) to 10(exp 12) neurodevices/cu mm. The problem of obtaining low energy dissipation, generally met with in very large integration systems, is solved owing to the low dissipation characteristics of quantum dipole switches and quantum wires. Magnetic and/or electric interactions can supply connection among components, so that wiring problems (the 'interconnection tyranny') can be overcome. Quantum neurocomputers can be envisaged to provide transmission rates higher than 10(exp 10) bit/s.
Frolov V. D.
Galushkin A. I.
Luskinovich P. N.
Nesmeyanov S. S.
Nikishin V. I.
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