Bruce C. Wheeler PUBLICATIONS and TALKS Peer Reviewed 1 ...

78. M. E. Lockwood, D. L. Jones, M. E. Elledge, R. C. Bilger, A. S. Feng, M. Goueygou, C. R. Lansing,
C. Liu, W. D. O'Brien, Jr., and B. C. Wheeler, "A minimum-variance frequency domain algorithm
for binaural hearing aid processing," ASA Meeting, Columbus OH, October 1999. Journal of the
Acoustical Society of America, vol. 106, p. 2278, 1999.
79. M. E. Elledge, M. E. Lockwood, R. C. Bilger, A. S. Feng, M. Goueygou, D. L. Jones, C. R. Lansing,
W. D. O'Brien, Jr., and B. C. Wheeler, "A real-time dual-microphone signal processing system for
hearing aids," ASA Meeting, Columbus OH, October 1999. JASA, vol. 106, p. 2279, 1999.
80. Wheeler, B.C. (1999) “Micropattern neural networks in a dish,” invited talk, Cambridge Healthtech
Institute Fourth Annual Conference on Microsystems Technology in Medicine and Biology, Boston
MA.
81. Venkateswar, R. A., Branch, D. W., and Wheeler, B. C. (1999) “A novel method for producing
patterned biomolecule gradients,” Proc. IEEE EMBS 21st Annual Int. Conf., Atlanta, GA, October.
82. Chang, J. C., Wheeler, B. C., and Brewer, G. J. (1999) “Substrate recording of patterned
hippocampal neurons on multielectrode arrays,” Proc. IEEE EMBS 21st Annual Int. Conf., Atlanta,
GA, October.
83. Branch, D. W., Wheeler, B. C., Brewer, G. J. (1999) “Long-term maintenance of patterns of
hippocampal pyramidal cells on substrates of polyethylene glycol and microstamped polylysine,”
Proc. IEEE EMBS 21st Annual Int. Conf., Atlanta, GA, October.
84. B. C. Wheeler, G. J. Brewer, D. W. Branch, J. Chang, and K. Venkateswar, "Rational Design Of In
Vitro Neural Networks Using Patterned Self-Assembled Monolayers," American Chemical Society
Abstracts, Los Angeles CA, March 1999.
85. Lockwood, M.E., Jones, D.L., Elledge, M.E., Bilger, R.C., Feng, A.S., Goueygou, M., Lansing,
C.R., Liu, C. O'Brien, W.D. Jr., Wheeler, B.C. (1999) A minimum variance frequency-domain
algorithm for binaural hearing aid processing. J. Acous. Soc. Am. 106 (Pt. 2): 2278A.
86. Elledge, M.E., Lockwood, M.E., Bilger, R.C., Feng, A.S., Goueygou, Jones, D.L., M., Lansing,
C.R., Liu, C. O'Brien, W.D. Jr., Wheeler, B.C. (1999) A real-time dual-microphone signalprocessing
system for hearing aids. J. Acous. Soc. Am. 106 (Pt. 2): 2279A.
87. Wheeler, B.C. (1998) “Multineuron Assemblies: Multidimensional Scaling For Visualization”,
Symposium on Developments in Multichannel Extracellular Recording, U. Mich. Center for Neural
Communication Technology, in conjunction with the 28th Soc. Neurosci. Conf., Los Angeles.
88. Branch, D.W. Chang, J., Brewer, G.J., and Wheeler, B.C. (1998) “Micropatterned Neural
Networks,” Abstr. 29th NIH Neural Prosthesis Conference Abstracts, 29, Bethesda MD.
89. Wheeler, B.C., Brewer, G.J., and Branch, D.W. (1998) “Micropatterned Neural Networks,”Abstr.
Biomed. Eng. Soc. Conf., Annals of Biomedical Engineering, 26, sup. 1, p. 93, Cleveland OH.
90. Wheeler, B.C. (1998) “Multineuron Assemblies: Multidimensional Scaling For Visualization,”
(invited presentation), Abstracts from the Int. Conf. on Substrate-integrated Microelectrode Arrays:
Technology and Applications, p. 7, Natural and Medical Sciences Instititue at Tubingen in
Reutlingen, Germany.
91. Wheeler, B.C. (1998) “Microstamping Proteins For Precise Control Of Nerve Cell Growth In
Culture,” (invited presentation), Abstracts from the Int. Conf. on Substrate-integrated Microelectrode
Arrays: Technology and Applications, p. 45, Natural and Medical Sciences Instititue at Tubingen in
Reutlingen, Germany.
92. Wheeler B.C., & Brewer, G.J. (1998) “Microstamping proteins for precise control of nerve cell
growth in culture,” Cambridge Healthtech Inst. Third Ann. Conf. Microsystems Techn. in Med. &
Biol., Boston MA.
93. Liu,C., Feng, A.S., O’Brien, W.D.,Jr., Wheeler,B.C., Bilger, R.C., & Lansing, C.R. (1997)
“Improving the acuity and robustness of localization of multiple sources using ‘stencil’ filters,”
JASA, 102(5), 3140.
94. Liu, C., Feng, A.S., Wheeler, B.C., O'Brien, W.D., Bilger, R.C. & Lansing, C.R. (1997) “A
binaurally-based auditory processor effectively extracts speech in the presence of multiple
competing sounds,” Hearing Aid Research and Development Conference, NIH, Bethesda, MD.