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Literature DB >> 179023

[Synchronization of the background activity of skeletal musculature, autonomic nerves and cerebral structures in cats].

Abstract

The background electrical activity of skeletal muscles, autonomic nerves and several brain structures was recorded in cats under acute and chronic conditions. The spectrum-correlation analysis showed that the spatial synchronization within the range of 25 to 35 Hz between autonomic nerves and brain formations (established in previous experiments) comprises the skeletal muscles as well. One of the possible mechanisms by which the rhythm of 25 to 35 Hz facilitates activity in the nervous system is suggested to be related to the frequency potentiation of the synaptic transmission.

Entities: Species

Mesh：

Year: 1976 PMID： 179023 DOI： 10.1007/bf01297750

Source DB: PubMed Journal: Neirofiziologiia ISSN： 0028-2561

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References

18 in total

1. [The effect of changes in the pH of the external solution on the afterpotentials of individual frog nodes of Ranvier].

Authors: L L Katalymov
Journal: Neirofiziologiia Date: 1976

10. The nature of the in vivo sodium and chloride uptake mechanisms through the epithelium against sodium and of bicarbonate against chloride.

Authors: F García Romeu; A Salibián; S Pezzani-Hernádez
Journal: J Gen Physiol Date: 1969-06 Impact factor: 4.086

[Synchronization of the background activity of skeletal musculature, autonomic nerves and cerebral structures in cats].

1. [The effect of changes in the pH of the external solution on the afterpotentials of individual frog nodes of Ranvier].

2. On the role of hydrogen ion and potassium ion in the active transport of sodium across the isolated frog skin.

3. Studies on the internal pH of large muscle and nerve fibres.

4. [Effect of pH on the active transport of sodium in the skin of frogs].

5. Effect of low pH and high CO 2 tension of the cell volume of rabbit renal cortex slices.

6. The effect of reducing extracellular pH on the membrane currents of the ranvier node.

7. Charges and potentials at the nerve surface. Divalent ions and pH.

8. The effects of CO2 and hydrogen ions on active Na transport in the isolated frog skin.

9. Ionic blockage of sodium channels in nerve.

10. The nature of the in vivo sodium and chloride uptake mechanisms through the epithelium against sodium and of bicarbonate against chloride.