Mechanisms underlying the production of carapace vibrations and associated waterborne sounds in the American lobster, Homarus americanus

Author:

Henninger Heidi Pye1,Watson Winsor H.1

Affiliation:

1. University of New Hampshire, Zoology Department, Durham, NH 03824,USA

Abstract

SUMMARY American lobsters produce carapace vibrations, which also lead to waterborne acoustic signals, by simultaneously contracting the antagonistic remotor and promotor muscles located at the base of the second antenna. These vibrations have a mean frequency of 183.1 Hz (range 87–261 Hz), range in duration from 68 to 1720 ms (mean 277.1 ms) and lead to waterborne sounds of similar frequencies. Lobsters most often produce these signals using only one pair of muscles at a time and alternate between the muscles of the left and right antennae when making a series of vibrations. Occasionally, they vibrate their carapace by simultaneously contracting both sets of muscles. While the remotor muscle is required for producing carapace vibrations, the promotor appears to play a secondary role. Electrical stimulation of the remotor, but not the promotor, results in the production of vibrations, while lesions of the remotor, but not promotor, eliminate the ability of lobsters to vibrate their carapace. Lobsters of all sizes and both sexes produce these signals when startled, grasped or threatened. However, at this time, the behavioral significance of vibration and/or sound production by American lobsters is not known.

Publisher

The Company of Biologists

Subject

Insect Science,Molecular Biology,Animal Science and Zoology,Aquatic Science,Physiology,Ecology, Evolution, Behavior and Systematics

Reference32 articles.

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3. Bevengut, M., McTeague, J. A. and Govind, C. K.(1993). Fiber composition of antennal muscles in the lobster Homarus americanus and the crayfish Procambarus clarkii.J. Crust. Biol.13,256-267.

4. Brandt, O. (1963). Principles of underwater acoustics. In Acoustic Behavior of Animals (ed. R. G. Busnel), pp. 49-53. New York: American Elsevier Publishing.

5. Connaughton, M. A. (2004). Sound generation in the searobin (Prionotus carolinus), a fish with alternate sonic muscle contraction. J Exp. Biol.207,1643-1654.

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