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Electrical
& Computer Engineering Faculty
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MEB
204 ext.3052
goo@eng.morgan.edu
Title:
Gee-In
Goo, Associate Professor, Electrical & Computer Engineering
Educational
Background:
1986 Ph.D. Electrical Engineering, Howard University, Washington
DC; specialized in Communication & Controls. Dissertation:
"A Linear Filter with Constrained Gain Matrix for Discrete-Time
Signal" (Generalized Filter).
1966 MSEE, The University of Michigan, Ann Arbor, Michigan, Specialized
in Laser and Electro-optics.
1965 BSEE, The University of Michigan, Ann Arbor, Michigan
Other
Professional Training (Since employed by MSU, Aug. '88)
· June 1994 "Speech Spectrogram Reading", Speech Recognition,
MIT, Cambridge, MA.
· July 1991 Parallel Processing Computer Architectures, MIT, Cambridge,
MA.
· May 1991 Neural Networks for Vision and Image Processing, Wang
Institute of Boston University, Tyngsboro, MA. Sponsored by
DARPA.
· March 1991 Intelligent Information Systems and Artificial Intelligence
Neural Networks training, Orlando, FL.
· July 1990 Parallel Computing: Dataflow Architectures and Languages,
MIT, Cambridge, MA.
· May 1990 Neural Networks for Automatic Target Detection and
Recognition, Wang Institute of Boston University, Tyngsboro, MA.
Sponsored by DARPA.
· August 1989 Intro. to Supercomputer, Center for Supercomuting,
Univ. of Pittsburgh, Pittsburgh, PA. Sponsored by NSF.
· August 1988 Acoustic Imaging and Systems training, at Optical
Conference, San Diego, CA. Sponsored by SPIE.
Special
Areas of Interest with Expertise
· Neural Networks for system controls and automatic target
detection and recognitions.
· Signal Processing for: acoustic target detection, identification,
image target detection and recognition, speech recognition physical
security systems, motion detection system and MTI systems.
· Super-processor and parallel-computing processor for real-time
image processing.
· Sensors-IR, RF, radiation, acoustic, magnetic, electro-magnetic,
magnetic grandiometers, etc.
· Computer simulation and modeling: Electro-magnetic and magnetic
ship models, acoustic lenses models, non-linear geometric lens
models
· Electronics-digital and analog
· Underwater Acoustic Lenses
· Sonars and Bionic (Dolphins) Sonars
Special
Areas of Interest
· Non-linear Geometric Optics
· Communications systems
· Neural Networks and Fuzzy Control systems
· Machine Visions and Medical Imaging
· Bionic Sensors and bionic signal processing
Present
and Future Research Topics and Descriptions
Bionic Sonar - this is an effort in developing an automatic target
detection and identification sonar. In this effort, a bionic sonar,
a broadband sonar, system is being developed. The bionic sonar
system mimmicks a dolphin's detection and recognition technique.
That is, a dolphin transmits a broadband acoustic signal and receives
an echo from the targets. It then processes the information in
this echo. It appears that the echo contains location information
about the target such as shape, size, material composition and
structure. This detection principle of operation is based on the
idea that all targets resonate at its natural frequency when energized.
We think, that dolphins may be using this resonant detection technique
to identify underwater targets. Analyzing the natural resonant
frequency from the targets one can determine the target's shape,
size and material composition. This analysis can be achieved by
using a G transform and a time delayed neural networks. Thus far,
an accurate recognition rate of 95 - 97% has been achieved. Future
work consist of analyzing more available active data on mine and
mine-like targets. In addition, there seems to be sufficient passive
acoustic sonar data indicating that a passive bionic sonar can
be developed using this resonant (dolphin) detection technique.
More work will be done in this research area.
Real-time
Image processor - this real-time image process is a parallel
processor developed in the mid 80s using commercial 1980s components.
It processes images at 30 frames per second and sends the resulting
images at 30 frames per second to a TV monitor. The purpose of
the system is for detecting moving targets or MTIs. The target
may be less than one pixel in size. This image processing system
is effective as human vision. The goal and future effort is to
re-develop this imaging system using state-of-the-art technology
and using today's commercial components.
Neural
Networks and Speech Recognition Research Lab
A lab facility for motivated students and to attract interested
students to do research in N.N. and/or speech recognition.
Patents
and Awards (Since employed by MSU, August 1988)
· July 1990 US Patent #4,939,407: "Block Patterning of the Metallization
of Polyvinylidene Fluoride Transducers," Awarded to G. Goo and
T. Waters.
· February 1990 Copyright # TX 2-783-937: "A Linear Filter with
Constrained Gain Matrix for Discrete-Time Signal," Awarded to
G. Goo.
Awards/Recognition
(Since employed by MSU, August 1988)
· August 1990 US Department of the Navy, Naval Surface Warfare
Center, Silver Spring, Maryland, Patent Award.
· March 1990 US Patent Office Recognition as Minority Inventive
Genius of America award, US Patent Office Bicentennial Celebration
(1790 - 1990).
· November 1998 US Department of the Navy, Naval Surface Warfare
Center, Silver Spring, Maryland, Patent Award. Many other US Army
and Navy research Lab Awards.
Description
of Managed Laboratory Facilities: Communication and Communication
Electronics Laboratory Neural Networks & Speech Recognition Research
Laboratory. (Proposed) Underwater Acoustic Research Laboratory
for acoustic Target Detection and Identification research in Schaefer
Engineering Building.
Courses
taught: (Since employed by MSU, August 1988)
EEGR 201 Network Analysis I
EEGR 202 Electrical Circuits
EEGR 203 Intro to Electrical Lab
EEGR 221 Signal and Systems I
EEGR 301 Network Analysis II
EEGR 322 Discrete System
EEGR 303 Electromagnetics I
EEGR 304 Electromagnetics II
EEGR 310 Principles of Electronics
EEGR 316 Electronics II
EEGR 317 Electronics
EEGR 401 Engineering Design
EEGR 403 Sr. Project Proposal
EEGR 404 Sr. Project Seminar
EEGR 453 Communication Theory
EEGR 454 Communication Electronics
EEGR 499-002 Intro to Neural Networks & Fuzzy Logics
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