Repository logo
English
  • English
  • Català
  • Čeština
  • Deutsch
  • Español
  • Français
  • Gàidhlig
  • Italiano
  • Latviešu
  • Magyar
  • Nederlands
  • Polski
  • Português
  • Português do Brasil
  • Suomi
  • Svenska
  • Türkçe
  • Tiếng Việt
  • Қазақ
  • বাংলা
  • हिंदी
  • Ελληνικά
  • Yкраї́нська
  • Log In
    or
    New user? Click here to register.Have you forgotten your password?
Repository logo
  • Communities & Collections
  • All of R-3
English
  • English
  • Català
  • Čeština
  • Deutsch
  • Español
  • Français
  • Gàidhlig
  • Italiano
  • Latviešu
  • Magyar
  • Nederlands
  • Polski
  • Português
  • Português do Brasil
  • Suomi
  • Svenska
  • Türkçe
  • Tiếng Việt
  • Қазақ
  • বাংলা
  • हिंदी
  • Ελληνικά
  • Yкраї́нська
  • Log In
    or
    New user? Click here to register.Have you forgotten your password?
  1. Home
  2. Browse by Author

Browsing by Author "Khushalani, Samir"

Now showing 1 - 1 of 1
Results Per Page
Sort Options
  • Loading...
    Thumbnail Image
    Item
    An ionic current model for neurons in the rat medial nucleus tractus solitarius receiving sensory afferent input
    (1992) Khushalani, Samir; Clark, John W., Jr.
    An ionic current model has been developed for the rat medial nucleus tractus solitarius (mNTS) neuron that provides a quantitative description of the ionic macrocurrents present in the soma of the cell, and their interaction in the genesis of patterned electrical activity. It consists of two parts, a model of the somatic membrane, and a fluid compartment model of the intra- and extracellular media. The somatic membrane model is of Hodgkin-Huxley form, and includes mathematical descriptions of time- and voltage-dependent ion selective channels, as well as pump, exchanger and other background currents present in the generic mNTS neuron. The lumped fluid compartment model accounts for intracellular changes in the $Ca\sp{2+}$ concentration. The model is able to successfully mimic the response of the neuron to different sequences of depolarizing and hyperpolarizing pulses, and has provided useful insights into the biophysical interactions underlying the phenomena of delayed excitation (DE) and spike frequency adaptation (SFA).
  • About R-3
  • Report a Digital Accessibility Issue
  • Request Accessible Formats
  • Fondren Library
  • Contact Us
  • FAQ
  • Privacy Notice
  • R-3 Policies

Physical Address:

6100 Main Street, Houston, Texas 77005

Mailing Address:

MS-44, P.O.BOX 1892, Houston, Texas 77251-1892