A Quantum Leap to Advances in Pattern Recognition
No discussion of advances in pattern recognition, robotics, etc. in the new millennium can be divorced from the quantum future of computing. The central problem is the ever increasing appetite(of real time pattern recognition, computer vision and image processing, robotics etc) for real time processing of real complexity in the three dimensional real world. This is pushing current technology ever smaller to where the classical modes of computation break down; due to cross-talk for example. Here the silicon superhighway ends in the apparently alien quantum world and a new millennium crisis begins!
By starting now, however, this impending crisis can be turned into a great opportunity. An understanding of what is quantum computationally possible! Of how the appetite for real time processing of real complexity in the three dimensional real world can be achieved. A practical achievement for which we are ourselves, in the case of pattern recognition, a living existence proof. Is this quantum computational future, therefore, one where the brain/organism is the role model for the computer/robot and not vice versa? Where, intelligence is real and not artificial? A future with an understanding from nature of what information -meaning- truly is? Where, at last, knowledge is directly captured and processed? A future where, mankind has access to all the keys to the computational kingdom? A pattern processing theory, quantum holography, describing existing magnetic resonance imaging (MRI) machines and a valid premise, for which evidence is already accumulating, are advanced that it is!
KeywordsCoherence Adenine Cytosine Guanine Uracil
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- Williams RS. Computing in the 21st Century: nanocircuitry, defect tolerence, and quantum logic, Proceedings Royal Society London; discussion meeting 5/6 November, 1997; in press.Google Scholar
- Shor PW. Algorithms for quantum computation: Discrete log and factoring, Proc. 35th IEEE Symposium on Foundations of Computer Science, S. Goldwasser, editor, IEEE Computer Society Press, 1994; 124.Google Scholar
- Spiller TP. Quantum Information Processing; Cryptography, Computation, and Teleportation, Proceedings IEEE, December 1996; 84(12): 1719–1746.Google Scholar
- Schempp W, Harmonic Analysis on the Heisenberg group with applications in signal theory. Pitman Notes in Mathematics Series 14. Longman Scientific and Technical, London, 1986.Google Scholar
- Marcer PJ. and Schempp W. The Brain as a Conscious System, International Journal General Systems, 1998; in press.Google Scholar
- Schempp W. Bohr’s indeterminacy principle in quantum holography, self-adaptive neural network architectures, cortical self-organization, magnetic resonance imaging and solitonic nanotechnology. Nanobiology 1993; 2: 109–164.Google Scholar
- Various Authors, Quantum information, New forms of computation and communication. Physics World (special issue) 1998; 11(3); 33–57.Google Scholar
- Marcer PJ. and Schempp W. A mathematically specified template for DNA and the genetic code in terms of the physically realisable processes of quantum holography. Proceedings, the Greenwich symposium on Living Computers, editors Fedorec A.M., Marcer P.J. March 9th, 1996; 45–62.Google Scholar
- Marcer PJ. and Schempp W. The model of the prokaryote cell as an anticipatory system working by quantum holography. Proceedings 1st International Conference of Computing Anticipatory Systems, Belgium, August 11–15, 1997, ed. Dubois D.,(in press).Google Scholar
- Gershenfeld N. and Chuang IL. Quantum Computing with Molecules, Scientific American, June 1998; 50–55.Google Scholar
- de Duve C, A Guided Tour of the Living Cell, vol. 2. Scientific American Library, W. H. Freeman, New York 1984, pp 257.Google Scholar