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Input-rate modulation of gamma oscillations is sensitive to network topology, delays and short-term plasticity

Date

Authors

McDonnell, Mark

Mohan, Ashutosh

Stricker, Christian

Ward, Lawrence M

Publisher

Elsevier

Abstract

Abstract Simulated networks of excitatory and inhibitory neurons have previously been shown to reproduce critical features of experimental data regarding neural coding in V1, such as a positive relationship between thalamic input spike rate and the power

Keywords

Keywords: algorithm; conference paper; frequency modulation; gamma oscillation; gamma rhythm; interneuron; nerve cell excitability; nerve cell network; nerve cell plasticity; nerve fiber growth; neurotransmitter release; noise; oscillation; priority journal; sensit Axonal delay; Cortical connectivity; Directed small world network; Gamma rhythm; Local field potential; Short term plasticity

URI

http://hdl.handle.net/1885/34381

Collections

ANU Research Publications

Source

Brain Research

Type

Journal article

DOI

10.1016/j.brainres.2011.08.070

Restricted until

2037-12-31

Downloads

File

Description

01_McDonnell_Input-rate_modulation_of_gamma_2012.pdf (273.2 KB)