Stretch and Hammer Neural Networks for N-Dimensional Data Generalization
Abstract
A hypersurface stretch and hammer neural network has been developed that generalize data from processes that have one output variable and one or more input variables. This network achieves several desirable properties through a novel combination of standard methods. The methods incorporate principal components, linear least squares, Gaussian radial basis functions, and diagonnally dominant matrices. An easily visualized physical model of network function ensures that the combination of methods is appropriate and practical. The model has natural potential for parallel implementation and for n- dimensional classification and other pattern recognition tasks. These tasks include smoothing (interpolation), filtering, and prediction (extrapolation). The model can be extended to accommodate multiple outputs. Unlike many other neural networks (such as backpropagation-trained networks), the training and performance characteristics of the stretch and hammer neural network. The trials on three-dimensional surface interpolation are also presented, as are notes on other potential applications.
Document Details
- Document Type
- Technical Report
- Publication Date
- Jan 15, 1992
- Accession Number
- ADA247941
Entities
People
- Gordon R. Little
- Peter G. Raeth
- Steven C. Gustafson
- Todd S. Puterbaugh
Organizations
- Wright Laboratory