Literature DB >> 9670546

Detection of ultrasonic tones and simulated dolphin echolocation clicks by a teleost fish, the American shad (Alosa sapidissima).

D A Mann1, Z Lu, M C Hastings, A N Popper.   

Abstract

The authors previously reported that American shad (Alosa sapidissima) can detect sounds from 100 Hz to 180 kHz, with two regions of best sensitivity, one from 200 to 800 Hz and the other from 25 to 150 kHz [Mann et al., Nature 389, 341 (1997)]. These results demonstrated ultrasonic hearing by shad, but thresholds at lower frequencies were potentially masked by background noise in the experimental room. In this study, the thresholds of the American shad in a quieter and smaller tank, as well as thresholds for detecting stimulated echolocation sounds of bottlenosed dolphins was determined. Shad had lower thresholds for detection (from 0.2 to 0.8 kHz) in the quieter and smaller tank compared with the previous experiment, with low-frequency background noise but similar thresholds at ultrasonic frequencies. Shad were also able to detect echolocation clicks with a threshold of 171 dB re: 1 microPa peak to peak. If spherical spreading and an absorption coefficient of 0.02 dB/m of dolphin echolocation clicks are assumed, shad should be able to detect echolocating Tursiops truncatus at ranges up to 187 m. The authors propose that ultrasonic hearing evolved in shad in response to selection pressures from echolocating odontocete cetaceans.

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Mesh:

Year:  1998        PMID: 9670546     DOI: 10.1121/1.423255

Source DB:  PubMed          Journal:  J Acoust Soc Am        ISSN: 0001-4966            Impact factor:   1.840


  11 in total

Review 1.  Hair cell heterogeneity and ultrasonic hearing: recent advances in understanding fish hearing.

Authors:  A N Popper
Journal:  Philos Trans R Soc Lond B Biol Sci       Date:  2000-09-29       Impact factor: 6.237

2.  Coding of acoustic particle motion by utricular fibers in the sleeper goby, Dormitator latifrons.

Authors:  Z Lu; Z Xu; W J Buchser
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Review 3.  Sensory acquisition in active sensing systems.

Authors:  M E Nelson; M A MacIver
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2006-01-28       Impact factor: 1.836

4.  Myosin VI and VIIa distribution among inner ear epithelia in diverse fishes.

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Journal:  Hear Res       Date:  2007-01-03       Impact factor: 3.208

5.  Pacific herring hearing does not include ultrasound.

Authors:  David A Mann; Arthur N Popper; Ben Wilson
Journal:  Biol Lett       Date:  2005-06-22       Impact factor: 3.703

6.  Air movement sound production by alewife, white sucker, and four salmonid fishes suggests the phenomenon is widespread among freshwater fishes.

Authors:  Rodney A Rountree; Francis Juanes; Marta Bolgan
Journal:  PLoS One       Date:  2018-09-20       Impact factor: 3.240

7.  Aquatic acoustic metrics interface utility for underwater sound monitoring and analysis.

Authors:  Huiying Ren; Michele B Halvorsen; Zhiqun Daniel Deng; Thomas J Carlson
Journal:  Sensors (Basel)       Date:  2012-05-31       Impact factor: 3.576

8.  Ultrasonic predator-prey interactions in water-convergent evolution with insects and bats in air?

Authors:  Maria Wilson; Magnus Wahlberg; Annemarie Surlykke; Peter Teglberg Madsen
Journal:  Front Physiol       Date:  2013-06-12       Impact factor: 4.566

Review 9.  Auditory evoked potential audiometry in fish.

Authors:  Friedrich Ladich; Richard R Fay
Journal:  Rev Fish Biol Fish       Date:  2013-01-18       Impact factor: 4.430

10.  Are accessory hearing structures linked to inner ear morphology? Insights from 3D orientation patterns of ciliary bundles in three cichlid species.

Authors:  Tanja Schulz-Mirbach; Friedrich Ladich; Martin Plath; Brian D Metscher; Martin Heß
Journal:  Front Zool       Date:  2014-03-19       Impact factor: 3.172

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