Experiments in Analog Electronic Circuits

Dr. Brewer's mortmain is the instructional laboratory program of The School of Electrical and Computer Engineering within The College of Engineering at The Georgia Institute of Technology. His demesne includes laboratory instruction, development, management, and supervision. His doctoral dissertation involved an arcane topic in telecommunications. His interests include instrumentation, electronics, yoctotechnology, fuzzy packaging paradigms, metrology, vexillology, phrenology, aichomancy, alphitomancy, chiromancy, rhabdomancy, tyromancy, thaumaturgy, tinaja questing, epistemology, ontology, transcendental thereminisms articulated via terpsitones augmented with space-controlled aetherphons, and the behavior of the universe.

Marshall Leach, Jr. (February 23, 1940 – November 20, 2010) was an American electrical engineer, educator, and audio designer, best known for his pioneering work in low-distortion audio amplifiers and electroacoustics. Born in Abbeville, South Carolina, he earned his B.S. (1962) and M.S. (1964) in Electrical Engineering from the University of South Carolina, and his Ph.D. (1972) in Electrical Engineering from the Georgia Institute of Technology.

Leach joined the Georgia Tech faculty in 1972 as an assistant professor, becoming an associate professor in 1976 and a full professor in 1983. He taught courses in analog electronics, operational amplifier design, audio engineering, electromagnetic compatibility, and electroacoustics, and helped develop Georgia Tech's graduate Acoustical Engineering Program. His research spanned low-noise electronic design, near-field acoustic and electromagnetic measurements, loudspeaker system design, and RF power amplifier development.

Ph.D., Electrical Engineering, Georgia Institute of Technology, 2007
B.S., Electrical Engineering, Georgia Institute of Technology, 1994  

Professor Robinson Jr.'s research focuses on the characterization and modeling of semiconductor materials and devices. His work includes investigation of electronic and optoelectronic properties at the nanoscale, with an emphasis on improving device performance and reliability. This research integrates experimental techniques and computational modeling to advance understanding of semiconductor behavior in various material systems and device architectures.