Title :
Using polynomic embedding for neural network design
Author :
Porter, William A.
Author_Institution :
Dept. of Electr. Eng., Alabama Univ., Huntsville, AL, USA
fDate :
6/1/1992 12:00:00 AM
Abstract :
Neural networks are characterized by the recursive equation x (l+1)=F{K[Ψ[Sx(l )]]}, l⩾1 and x(l)∈Rn. F is a capture function of a finite alphabet, Ψ is a polynomic embedding map, and K and S are linear maps. These functions are shown to be compatible with systolic array implementation, providing the highly desirable feature of VLSI compatibility. The layering of computations on the array is demonstrated. This establishes the capability of simultaneously running independent recognition problems on the same array. Several simulations demonstrate that the work capacity substantially exceeds the dimensionality of the training set. Rapid iterative convergence, negligible false recognitions, and robustness are additional properties of the network
Keywords :
convergence; matrix algebra; neural nets; polynomials; systolic arrays; VLSI compatibility; concurrent computations; independent recognition problems; iterative convergence; neural network design; polynomic embedding; systolic array implementation; Computational modeling; Convergence; Erbium; Neural networks; Neurons; Nonlinear equations; Polynomials; Robustness; Systolic arrays; Transfer functions;
Journal_Title :
Circuits and Systems II: Analog and Digital Signal Processing, IEEE Transactions on