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Spectral analysis of tremorine and cold tremor electromyograms in animal species of different size

  • Excitable Tissues and Central Nervous Physiology
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Abstract

In 14 mice (36.2±5.4 g), 17 rats (425±46.4 g), and 11 rabbits (3,200±340 g) a comparative electromyographic analysis of tremorine tremor and cold tremor was performed in gastrocnemius and tibialis anterior muscles using spectral analysis. The mean frequency of cold tremor decreased with increasing body weight (mice: 40.2±4.5Hz; rats: 31.3±4.9 Hz; rabbits: 16.4±3.2 Hz). With tremorine tremor no such allometric correlation was found for tremor frequency and body weight (mice: 17.7±3.6 Hz; rats: 19.6±5.1 Hz; rabbits: 15.9±2.1 Hz).

Cross spectral analysis revealed that during cold tremor the flexor muscle (tibialis anterior) and the extensor muscle (gastrocnemius) of rabbits are activated alternately. The mean phase shift between the activation of flexor and extensor muscle was −155.5°. Stronger activation was observed in the flexor muscle. Tremorine tremor was characterized by synchronous activation of flexor and extensor muscles with a mean phase angle of 3.0° and a predominance of the extensor muscle.

The results suggest that the nervous mechanisms for the generation of tremorine tremor and cold tremor are different.

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Günther, H., Brunner, R. & Klußmann, F.W. Spectral analysis of tremorine and cold tremor electromyograms in animal species of different size. Pflugers Arch. 399, 180–185 (1983). https://doi.org/10.1007/BF00656712

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  • DOI: https://doi.org/10.1007/BF00656712

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