Seminari del programa de Doctorat en Enginyeria Biomèdica
El professor Dr. Guenter W. Gross del CNNS Center for Network Neuroscience de la Universitat de North Texas a USA impartirà les classes del "Seminari d'Iniciació a la Investigació" de 4ECTS que forma part del Programa de Doctorat en Enginyeria Biomèdica.
| What | Seminari |
|---|---|
| When |
2008-06-02 10:00
to 2008-06-06 12:00 |
| Where | Aula 007 Facultat de Matemà tiques i EstadÃstica (FME). Campus Sud – UPC. Cr. Pau Gargallo, 5 -08028- BCN. |
| Contact Name | Enric Claverol Tinturé |
| Contact Email | marta.claros@upc.edu |
Aquest seminari impartit pel professor Dr. Guenter W. Gross forma part del programa d'Ajudes per a la mobilitat de professors visitants a doctorats en Menció de Qualitat per al curs 2007/2008 de la Direcció General d'Universitats, Secretaria de l'Estat d'Universitat i Investigació, Ministeri d'Educació i Ciència. Està obert a tot aquells qui estiguin interessats, tot i que cal confirmar l'assistència a:
Marta Clarós Gimeno
Dep. Eng. Sistemes, Automà tica i Informà tica Industrial
marta.claros@upc.edu
Aquest seminari forma part dels complements formatius del Programa de Doctorat en Enginyeria Biomèdica coordinat pel Dr. Raimon Jané Campos.Dep. Eng. Sistemes, Automà tica i Informà tica Industrial
marta.claros@upc.edu
Course contents:
Monday, June 2nd, 2008
Introduction: Emerging new research fields in Neurophysics / Neuroengineering / Computational neuroscience
1. Basic Neurophysiology
1.1 Neurons and glia
1.2 Membrane potentials
1.3 Action potentials
1.4 Synapses
1.5 Spatial and temporal integration
1.6 Plasticity
Tuesday, June 3rd, 2008
2. Nerve Cell Networks
2.1. Significance of network research
2.2. In vitro methods and MEA history
2.3. Network neurophysiology
2.4. Electrophysiological dynamics
Wednesday, June 4th, 2008
3. Applications of neuronal network dynamics
3.1. Pharmacology
3.2. Toxicology
3.3. Biosensors
Thursday, June 5th, 2008
4. Theory and Computational Neuroscience
4.1. Origins of spontaneous activity
4.2. Burst leaders
4.3. Self-organization and Information processing
Friday, June 6th, 2008
5. New Developments
5.1. 8- and 16-network platforms
5.2. A 256 electrode MEA
5.3. Microelectrode modification with carbon nanotubes
5.4. Life support engineering
5.5 Future data analysis and display
Biography
Dr. Gross completed his undergraduate training in engineering at the Stevens Institute of Technology in Hoboken, New Jersey in 1962. After five years as a pilot with the United States Air Force, which included one year in Vietnam as a Forward Air Controller, he entered graduate training at Florida State University and received the Ph.D. in biophysics and neurophysiology in 1973. Postdoctoral training was obtained with the Experimental Neuropathology Section of the Max Planck Institute for Psychiatry in Munich. After a brief period as a visiting scientist with the Sandoz Corporation in Basel, he moved to Texas. From 1978 to 1965 he was an assistant, and then associate, professor with the Department of Biology at the Texas Woman's University. In August of 1985 he joined the Department of Biological Sciences at UNT.Dr. Gross was the founder of the UNT Center for Network Neuroscience in January 1987 and has been the director of the CNNS since that time. He was promoted to Professor of Biology with the specialty in neuroscience in Sept. of 1988 and to Regents Professor in 1996. Since receiving his Ph.D., Dr. Gross has been interested in information processing in the brain with emphasis on pattern processing in small networks. For the past 20 years, his research has focused on the self-organization and internal dynamics of networks in cell cultures derived from the mammalian central nervous system. Dr. Gross has pioneered the development of substrate integrated, thin film microelectrode arrays for use in cell culture and has systematically applied this technique to the simultaneous, long-term monitoring of neuronal activity in cultured networks and to the design and fabrication of new life-support systems for long-term maintenance of cultures during recording and optical monitoring. He has shown that neuronal monolayers in culture are pharmacologically histiotypic and retain characteristics of the parent tissue after many months in culture. These efforts have led to new applications in the areas of toxicology, drug development, and tissue-based biosensors. Industry is now showing interest in parallel network analyses that will allow rapid, high throughput screening of new chemical compounds for quantitative neurotoxicology evaluations. Since 1990, Dr. Gross has trained 37 researchers from the US, England, Germany, Japan, and Spain. Dr. Gross has published 112 research articles and presented a total of 93 invited seminars. Research collaborations are established with the Los Alamos National Laboratory, with the Naval Research Lab (Washington, D.C.), with the University of Nottingham (U.K.), with the University of Rostock, Germany, and with the Technical University of Munich.
