RESUME of
Laurence G. Hassebrook (PE)
Associate Professor of Electrical Engineering

(Last Update, August 26, 2003)

Department of Electrical Engineering, University of Kentucky, 453 Anderson Hall, Lexington, KY 40506-0046, Phone: (859) 257-8040, Fax: (859) 257-3092, Email: lgh@engr.uky.edu, URL: http://www.engr.uky.edu/~lgh/

 


RESUME

PUBLICATIONS


Primary areas of research are pattern recognition and N-D signal processing. His research program presently has two main branches; automatic target recognition and 3-D data acquisition. His research includes several approaches in signal/image detection, discrimination, estimation, registration and training set selection. Most notable is his work with Synthetic Discriminant Functions (SDFs) for distortion-invariant optical pattern recognition. He has developed several new optical pattern recognition schemes. One of these schemes, known as linear coefficient composite filters is a discrete form of harmonic expansion. He has extended this research to include multiple distortions based on the discrete form of multi- parameter harmonic expansions. The resulting filter designs are numerically efficient for on-line generation. The latest research uses these rotation-invariant filters in such a way as to reconstruct larger scenes from smaller, partially overlapping, sub-images. These latest results achieve numerical efficient operation and are competitive in speed and precision with manual scene assembly by humans. Other studies of this research include pattern discrimination, registration, high level morphological operations, contrast-invariance, fractal colored noise synthesis/analysis and distortion parameter estimation.

His second area of research is 3-D data acquisition using structured light techniques. His studies date back to 1980 in this area and include various algorithms for structuring the light, analysis and reconstruction of surfaces. In the last year, this branch of his research has received considerable industrial interest. Research performed but not published yet, include artificial intelligence (AI) algorithms for active measurement optimization and sub-pixel accuracy using non-linear filtering of non-stationary stochastic processes. Most recently he has applied Information Theory to successive striping methodology to achieve both a deeper understanding of structured light illumination as well as more efficient methods. Future research efforts will be the fusion of 3-D data acquisition with the SDF research to achieve 3-D pattern recognition for AI applications.