The author's recent participation in the Small Business Innovative Research (SBIR) program has resulted in the
development of a patent pending technology that enables the construction of very large and fast artificial neural
networks. Through the use of UNICON's CogniMaxTM pattern recognition technology we believe that systems can be
constructed that exploit the power of "exhaustive learning" for the benefit of certain types of challenging pattern
recognition problems. The Viacom lawsuit against YouTubeTM in early 2007 brought to light the magnitude of the
video piracy problem and caused us to examine the associated technical challenges to determine whether our technology
might enable an effective solution. This paper presents a theoretical study that describes how a massive-scale anti-piracy
video pattern recognition system might be constructed using a large/fast Radial Basis Function (RBF) artificial Neural
Network (NN) to enable a solution. Several daunting technical challenges exist. First, the amount of copyrighted video
content that has been generated over time and now must be protected is enormous. Second, the activity level that is
generally present on a large file-sharing site such as YouTube presents any pattern recognition system with a torrent of
video content to inspect. Third, the concept of "fair-use" implies that an anti-piracy policy is not simply based on
identifying a few copyrighted video frames. To determine system feasibility, this paper derives a set of example
requirements for such a system, lays out a hypothetical anti-piracy data processing architecture, and evaluates the
performance of the example system configuration.
KEYWORDS: Neural networks, Control systems, Computing systems, Neurons, Pattern recognition, Chemical elements, Control systems design, Brain mapping, Artificial neural networks, Nonlinear control
The author's recent participation in the Small Business Innovative Research (SBIR) program has resulted in the
development of a patent pending technology that enables the construction of very large and fast artificial neural
networks. Through the use of UNICON's CogniMax pattern recognition technology we believe that systems can be
constructed that exploit the power of "exhaustive learning" for the benefit of certain types of complex and slow
computational problems. This paper presents a theoretical study that describes one potentially beneficial application of
exhaustive learning. It describes how a very large and fast Radial Basis Function (RBF) artificial Neural Network (NN)
can be used to implement a useful computational system. Viewed another way, it presents an unusual method of
transforming a complex, always-precise, and slow computational problem into a fuzzy pattern recognition problem
where other methods are available to effectively improve computational performance. The method described recognizes
that the need for computational precision in a problem domain sometimes varies throughout the domain's Feature Space
(FS) and high precision may only be needed in limited areas. These observations can then be exploited to the benefit of
overall computational performance. Addressing computational reliability, we describe how existing always-precise
computational methods can be used to reliably train the NN to perform the computational interpolation function. The
author recognizes that the method described is not applicable to every situation, but over the last 8 months we have been
surprised at how often this method can be applied to enable interesting and effective solutions.
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