ULTIMATE COMPUTING - Quantum Consciousness Studies

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206 NanoTechnology Arrays of nanoscale electrodes or STM tips comprising sub-micron scale assemblies may be extremely useful if their position can be precisely and rapidly regulated. Schneiker (1987) has suggested that optimal utilization of piezoceramic materials may be used for parallel scanning of nanoscale arrays. The piezo-ceramic “biomorph-bender” described by Dieter Pohl and colleagues (1986) ‘may be used to manipulate such arrays for fast parallel reading and writing of nanoscale array chips for mass storage and processing of information (Figures 10.14 and 10.15, Schneiker, 1987). STM/FMs could be used for more conventional ultraprecise circuit or component trimming and repair operations. The extremely accurate positioning systems of STM/FM could be exploited for minimal scale wirebonding systems. Other STM derived applications could include inspection of, and electrical and mechanical interfacing to, superlattice quantum well devices or “quantum dot” devices on the scale of cubic nanomenters. In 1959 Feynman noted that using his strategy it should eventually be possible to make what are now called superlattices and that they would probably have some very interesting properties (Feynman, 1961). Even though STM/FMs may not ultimately be used to mass produce such devices, they could be used to construct prototypes, help characterize test devices, and be used to optimize them. STM tip induced sputtering (Binnig, Gerber, Rohrer and Weibel, 1985) might be used to etch or mill ultrafine conductors for such devices. The availability of even small numbers of such extremely high performance devices would have great instrumentation value as interfaces and transducers (Figures 10.16 thru 10.19). Computing components each consisting of a few atoms might use quantized energy levels or spin effects (Feynman, 1960); if such devices could be designed and assembled, they could be thousands of times faster than conventional devices used in today’s computers. Other aspects of quantum computers are discussed in Maddox (1985), and other interesting references may be found in Schneiker (1986). Efficiently interfacing these and other such devices to the outside world in a manner that can effectively utilize their potential computing bandwidth presents some interesting problems in clocking, input/output, and other areas. Schneiker claims that the optical electronics technology suggested by Javan (1985, 1986) might be useful in these and other nanoapplications as well. Using micro and nano-antennas coupled to laser radiation, intense, localized high frequency electric fields modulated by the laser beam’s intensity, phase, and polarization could control and power arrays of STM/FM constructed nanoscale devices. This same idea could be used to control, power, and communicate with swarms of mobile nanorobots.
NanoTechnology 207 Figure 10.14: Computer mass storage for fast parallel reading and writing “nanofilm” coated chips. Ultimately, electrodes could be replaced with micro-STMs (Figure 10.15) for accessing individual molecular devices. A simple system might also be configured for highly parallel nanolithography. By Conrad Schneiker (Schneiker, 1986).
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ULTIMATE COMPUTING 1 ULTIMATE COMPU
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Contents 3 4.3.7 Parallelism, Colle
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Prelude 5 0 Prelude What is this bo
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Toward Ultimate Computing 7 1 Towar
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Toward Ultimate Computing 17 in the
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Toward Ultimate Computing 21 (1981)
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Brain/Mind/Computer 33 2 Brain/Mind
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Brain/Mind/Computer 35 and organiza
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Brain/Mind/Computer 37 consciousnes
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Brain/Mind/Computer 41 2.2.9 Neural
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Brain/Mind/Computer 43 coherent ref
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Brain/Mind/Computer 45 transmitting
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Origin and Evolution of Life 47 3 O
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Origin and Evolution of Life 49 con
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Origin and Evolution of Life 51 of
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Origin and Evolution of Life 53 inf
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Origin and Evolution of Life 55 Fig
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Origin and Evolution of Life 57 cen
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Anesthesia: Another Side of Conscio
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Page 219 and 220: Bibliography 219 12 Bibliography Aa
Page 221 and 222: Bibliography 221 Barra H. S., C. A.
Page 223 and 224: Bibliography 223 Careri, G., U. Buo
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Page 227 and 228: Bibliography 227 Eckert, R., Y. Nai
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Page 241 and 242: Bibliography 241 Robinson, A. L. (1
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Bibliography 257 Muralt, P. and D.
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Bibliography 259 Myhill, J. (1964).
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Bibliography 261 12.6 Quantum Compu
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Bibliography 263 Keyes, R. W. (1972
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Bibliography 265 beta tubulin, 7, 8
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Bibliography 267 dipole interaction
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Bibliography 269 129, 133, 136, 144
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Bibliography 271 Ramon y Cajal, 67
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