We present a two-dimensional boundary integral formulation of nerve impulse propagation. A nerve impulse is a potential difference across the cellular membrane that propagates along the nerve fiber. The traveling transmembrane potential is produced by the transfer of ionic species between the intra- and extra-cellular mediums. This current flux across the membrane-composed of conduction, diffusion and capacitive terms- is regulated by passive and active mechanisms that are highly complicated to describe mathematically from a microscopic point of view. Based on the Hodgkin and Huxley axon model, we propose a well-posed integral formulation based on a quasi-static approximation amenable to time-stepping schemes and discuss first results.
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Autor | Henriquez Barraza, Fernando Jose Jerez Hanckes, Carlos F. Altermatt Couratier, Fernando René |
Título | Boundary integral formulation for the electrical response of a nerve to an extracellular stimulation |
ISSN | 1094-687X |
ISSN electrónico | 1558-4615 |
ISBN electrónico | 978-1-4577-0216-7 |
Página inicio | 6207 |
Página final | 6010 |
Fecha de publicación | 2013 |
Resumen | We present a two-dimensional boundary integral formulation of nerve impulse propagation. A nerve impulse is a potential difference across the cellular membrane that propagates along the nerve fiber. The traveling transmembrane potential is produced by the transfer of ionic species between the intra- and extra-cellular mediums. This current flux across the membrane-composed of conduction, diffusion and capacitive terms- is regulated by passive and active mechanisms that are highly complicated to describe mathematically from a microscopic point of view. Based on the Hodgkin and Huxley axon model, we propose a well-posed integral formulation based on a quasi-static approximation amenable to time-stepping schemes and discuss first results. |
Derechos | acceso restringido |
DOI | 10.1109/EMBC.2013.6610971 |
Editorial | IEEE |
Enlace | https://ieeexplore.ieee.org/stamp/stamp.jsp?arnumber=6610971 |
Palabra clave | Mathematical model Nerve fibers Electric potential Equations Extracellular Integral equations Biomembranes |
Publicado en / Colección | Annual International Conference of the IEEE Engineering in Medicine and Biology Society (EMBC) (35° : 2013 : Osaka, Japón) |
Tipo de documento | comunicación de congreso |