Effect of Thyroid-Hormone Levels on 35S-Sulfate Pools in Mature and Senile Rat Brain

  • M. J. Short
  • W. P. Wilson
  • J. B. SidburyJr.


In neurophysiological studies concerning the effect of thyroid hormone on electrophysiology of the central nervous system (CNS) in man and animal, we have demonstrated alteration of cerebral evoked potentials [1, 2]. The changes observed involve the secondary component of the evoked potential. This portion of the evoked potential has been interpreted as reflecting the spread of the impulse through a synaptic network surrounding the area of primary reception of the impulse [3], In the process of exciting adjacent dendrites, current must pass through an intercellular space. Conceivably, changes in the physiochemical state of molecules occupying this space would modify current flow, and thus produce the changes in evoked potentials that we observed.


Thyroid Hormone Hyaluronic Acid Lateral Geniculate Nucleus Sulfate Activity Central Nervous Tissue 
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© Springer Science+Business Media New York 1968

Authors and Affiliations

  • M. J. Short
  • W. P. Wilson
  • J. B. SidburyJr.

There are no affiliations available

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