Back to Results
First PageMeta Content
Integral membrane proteins / Ion channels / Cellular neuroscience / Biological neuron model / Action potential / Membrane potential / Sodium channel / Reversal potential / Potassium channel / Biology / Electrophysiology / Computational neuroscience


Accurate and Fast Simulation of Channel Noise in Conductance-Based Model Neurons by Diffusion Approximation Daniele Linaro1, Marco Storace1, Michele Giugliano2,3,4* 1 Biophysical and Electronic Engineering Department, Un
Add to Reading List

Document Date: 2014-02-10 10:38:36


Open Document

File Size: 1,67 MB

Share Result on Facebook

City

Conductance / Lausanne / Wilrijk / Genoa / Langevin / Recherche Scientifique / be taken in deriving accurate Langevin-kind formulations / /

Company

Creative Commons / /

Country

Switzerland / Belgium / Italy / /

Currency

pence / /

/

Facility

University of Antwerp / University of Sheffield / Laboratory of Neural Microcircuitry / Brain Mind Institute / University of Genoa / /

IndustryTerm

experimental protocol / by-product / parallel computing resources / large networks / mass-action law / /

NaturalFeature

United Kingdom Abstract Stochastic channel / /

Organization

University of Sheffield / Sheffield / Centre National / University of Antwerp / Laboratory of Neural Microcircuitry / Flanders Research Foundation / University of Genoa / Universite´ Paris Descartes / Department of Biomedical Sciences / Department of Computer Science / Brain Mind Institute / Biophysical and Electronic Engineering Department / Royal Society / /

Person

Lyle J. Graham / /

Position

Author / original author / Editor / /

ProgrammingLanguage

C++ / /

PublishedMedium

PLoS Computational Biology / the PLoS Computational Biology / /

Technology

neuroscience / previous Langevin-based algorithms / Simulation / experimental protocol / /

URL

http /

SocialTag