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2007 - Chemical & Biomedical Engineering - University of South ...

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Dr. Richard Gilbert<br />

Pr<strong>of</strong>essor<br />

gilbert@eng.usf.edu<br />

(813) 974-2139<br />

website: http://natasha.eng.usf.edu/gilbert<br />

Education:<br />

Ph.D. <strong>University</strong> <strong>of</strong> <strong>South</strong> Florida, 1980<br />

M.S. Organic <strong>Chemical</strong>, John Carroll <strong>University</strong>, 1971<br />

A.B Science, Villanova <strong>University</strong>, 1966<br />

Research Interests: <strong>Biomedical</strong> Systems, Field Mediated drug/gene<br />

delivery, Field mediated cell fusion for diagnostic and therapeutic<br />

applications, Instrumentation, <strong>Engineering</strong> as a learning tool in<br />

Elementary School Education, Surface science instrumentation<br />

Electric Field Mediated Drug and Gene Delivery<br />

Dr. Richard Gilbert works with a team <strong>of</strong> doctors and scientists<br />

at the College <strong>of</strong> Medicine, the M<strong>of</strong>fitt Cancer Research<br />

Institute and USF’s Center for Molecular Delivery. The team is<br />

developing ways to use electric fields to mediate the delivery<br />

<strong>of</strong> drug and gene treatment protocols for cancer and genetic<br />

diseases. At this point, the USF team has developed<br />

chemotherapeutic and gene therapy protocols that have been<br />

successfully demonstrated in clinical trials.<br />

0.010<br />

Distance (mm)<br />

from Cell Surface<br />

0.000<br />

-0.004 0<br />

Electrodes End View<br />

0.005<br />

Distance from Center<br />

Electric Field Strength<br />

In additional to this<br />

translational research, the<br />

group uses various<br />

computer-based modeling<br />

and simulations techniques<br />

to explore the engineering<br />

science concepts that help<br />

explain this field-induced<br />

transport phenomena.<br />

The group is also focusing its attention on the development <strong>of</strong><br />

technology that will make single cell fusions an efficient and<br />

practical procedure. This technology will represent the first<br />

time that one-to-one cell fusions can be routinely<br />

accomplished. Success in this arena will trigger interesting<br />

diagnostic as well as therapeutic applications for the fused<br />

hybrid cell systems.<br />

Dr. Gilbert is also working with the<br />

National Science Foundation<br />

supported Advanced Technological<br />

Education Center for Florida (FLATE).<br />

This NSF long term funded center has<br />

developed a working partnership<br />

between Florida’s Department <strong>of</strong><br />

Education, the various technical<br />

degree programs at community<br />

colleges in Florida and USF’s College<br />

<strong>of</strong> <strong>Engineering</strong> to promote and<br />

facilitate student enrollment, provide<br />

pr<strong>of</strong>essional development for faculty<br />

in these programs, and standardize the degree programs and<br />

their content. These efforts improve degree recognition by<br />

Florida’s high technology industries that employ the graduates<br />

<strong>of</strong> these programs and provide a degree quality feedback<br />

mechanism to help the programs meet industry needs.<br />

Recent Research Projects:<br />

‣ Non-contact Metrology for Surface<br />

Analysis<br />

‣ Florida Advance Technology Education<br />

Center for Manufacturing Education (NSF-<br />

FLATE)<br />

‣ New Cell Surface Probes<br />

‣ Enhanced Effects <strong>of</strong> Multiple Treatment <strong>of</strong><br />

Electric Field Mediated Delivery Methods<br />

in Molecular Medicine<br />

‣ Theory and In Vivo Application <strong>of</strong><br />

Electroporative Gene Delivery<br />

‣ Technology Related Content for High<br />

School and Mathematics Courses<br />

‣ Development <strong>of</strong> an integrated Science,<br />

Mathematics and Language Arts<br />

Elementary Education Curriculum that<br />

uses <strong>Engineering</strong> as the Facilitation Tool.<br />

Recent Publications:<br />

Gilbert, R., Nonpenetrating Electroporation<br />

Device. (Australia Patent 204201004) 2006:<br />

Australia.<br />

Gilbert, R., “Optimization <strong>of</strong> Logic Circuits.”<br />

Instrument Engineers’ Handbook, 2006.<br />

Taylor & Francis Group, Philadelphia, PA.<br />

p. 898-905.<br />

Gilbert, R., “Solid State Logic Elements.”<br />

Instrument Engineers’ Handbook, 2006.<br />

Taylor & Francis Group, Philadelphia, PA.<br />

p. 1015-1023.<br />

Gilbert, R., “Timers and Programming<br />

Timers.” Instrument Engineers’ Handbook,<br />

2006. Taylor & Francis Group, Philadelphia,<br />

PA. p. 1036-1045.<br />

Little, R. Barger, M. Gilbert, R. Parsons, C.,<br />

“<strong>Engineering</strong> an Elementary School<br />

Environment to Enhance Learning.” ASEE<br />

Conference Proceeding 2008.<br />

9

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