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Sensitivity of the mussel Mytilus edulis to substrate‑borne vibration in relation to anthropogenically generated noise
Roberts, L.; Cheesman, S.; Breithaupt, Th.; Elliott, M. (2015). Sensitivity of the mussel Mytilus edulis to substrate‑borne vibration in relation to anthropogenically generated noise. Mar. Ecol. Prog. Ser. 538: 185-195.
In: Marine Ecology Progress Series. Inter-Research: Oldendorf/Luhe. ISSN 0171-8630; e-ISSN 1616-1599, more
Peer reviewed article  

Available in  Authors 

    Seismic energy
    Mytilus edulis Linnaeus, 1758 [WoRMS]
Author keywords
    Substrate-borne vibration; Anthropogenic noise; Sensitivity threshold; Marine energy

Authors  Top 
  • Roberts, L.
  • Cheesman, S.
  • Breithaupt, Th.
  • Elliott, M.

    Many anthropogenic activities in the oceans involve direct contact with the seabed (for example pile driving), creating radiating particle motion waves. However, the consequences of these waveforms to marine organisms are largely unknown and there is little information on the ability of invertebrates to detect vibration, or indeed the acoustic component of the signal. We quantified sensitivity of the marine bivalve Mytilus edulis to substrate-borne vibration by exposure to vibration under controlled conditions. Sinusoidal excitation by tonal signals at frequencies within the range 5 to 410 Hz was applied during the tests, using the ‘staircase’ method of threshold determination. Thresholds were related to mussel size and to seabed vibration data produced by anthropogenic activities. Clear behavioural changes were observed in response to the vibration stimulus. Thresholds ranged from 0.06 to 0.55 m s-2 (acceleration,  root mean squared), with valve closure used as the behavioural indicator of reception and response. Thresholds were shown to be within the range of vibrations measured in the vicinity of anthropogenic operations such as pile driving and blasting. The responses show that vibration is likely to impact the overall fitness of both individuals and mussel beds of M. edulis due to disruption of natural valve periodicity, which may have ecosystem and commercial implications. The observed data provide a valuable first step to understanding the impacts of such vibration upon a key coastal and estuarine invertebrate which lives near industrial and construction activity, and illustrate that the role of seabed vibration should not be underestimated when assessing the impacts of noise pollution.

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