Sound characterization of the European lobster Homarus gammarus in tanks

IF 1.3 4区 生物学 Q3 MARINE & FRESHWATER BIOLOGY
Aquatic Biology Pub Date : 2018-05-03 DOI:10.3354/AB00692
Youenn Jézéquel, J. Bonnel, J. Coston-Guarini, J. Guarini, L. Chauvaud
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引用次数: 28

Abstract

Experiments in marine behavioural ecology rely heavily on observations made in tanks. However, when studying acoustic behaviours of marine animals in confined volumes, the effects of reverberation must be characterized, something that has been overlooked in parts of the marine ecology literature. In this study, we characterized reverberation in tanks using an artificial sound source and examined the implications for bioacoustic studies using sounds emitted by the European lobster Homarus gammarus during feeding and in response to stress. Broadband and transient sounds commonly produced by crustaceans were severely impacted by reverberation such that their spectral characteristics and pulse width durations could not be assessed. In contrast, low-frequency sounds could be characterized in tanks, but not their source level. Based on these observations, we describe a simple methodology to identify which sound characteristics can be measured in tanks. When feeding, the lobsters produced broadband and transient sounds called ‘rattles’, similar to sounds reported for tropical spiny lobsters Palinurus longipes and P. argus. When stressed, H. gammarus vibrated its carapace, producing a low-frequency sound analogous to the ‘buzzing’ sound of the American lobster H. americanus. The potential role of species-specific sound is discussed; however, although our observations represent the first bioacoustic characterization of H. gammarus, additional behavioural studies are necessary to understand their ecological meaning.
欧洲龙虾在水箱中的声音表征
海洋行为生态学的实验在很大程度上依赖于在水箱中进行的观察。然而,当在有限的体积中研究海洋动物的声学行为时,混响的影响必须被表征,这在部分海洋生态学文献中被忽视了。在这项研究中,我们使用人工声源表征了水池中的混响,并使用欧洲龙虾Homarus gammarus在喂食和应激反应过程中发出的声音来研究生物声学研究的意义。通常由甲壳类动物产生的宽带和瞬态声音受到混响的严重影响,因此无法评估其频谱特征和脉宽持续时间。相比之下,在水箱中可以识别低频声音,但不能识别它们的声源水平。基于这些观察,我们描述了一种简单的方法来确定哪些声音特征可以在水箱中测量。在进食时,龙虾会发出一种被称为“响尾音”的宽频和短暂的声音,类似于热带刺龙虾Palinurus longipes和P. argus的声音。当受到压力时,H. gammarus会震动它的甲壳,发出一种低频的声音,类似于美国龙虾H. americanus发出的“嗡嗡”声。讨论了物种特异性声音的潜在作用;然而,尽管我们的观察代表了H. gammarus的第一个生物声学特征,但需要额外的行为研究来理解它们的生态学意义。
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来源期刊
Aquatic Biology
Aquatic Biology 生物-海洋与淡水生物学
CiteScore
2.70
自引率
0.00%
发文量
7
审稿时长
3 months
期刊介绍: AB publishes rigorously refereed and carefully selected Feature Articles, Research Articles, Reviews and Notes, as well as Comments/Reply Comments (for details see MEPS 228:1), Theme Sections, Opinion Pieces (previously called ''As I See It'') (for details consult the Guidelines for Authors) concerned with the biology, physiology, biochemistry and genetics (including the ’omics‘) of all aquatic organisms under laboratory and field conditions, and at all levels of organisation and investigation. Areas covered include: -Biological aspects of biota: Evolution and speciation; life histories; biodiversity, biogeography and phylogeography; population genetics; biological connectedness between marine and freshwater biota; paleobiology of aquatic environments; invasive species. -Biochemical and physiological aspects of aquatic life; synthesis and conversion of organic matter (mechanisms of auto- and heterotrophy, digestion, respiration, nutrition); thermo-, ion, osmo- and volume-regulation; stress and stress resistance; metabolism and energy budgets; non-genetic and genetic adaptation. -Species interactions: Environment–organism and organism–organism interrelationships; predation: defenses (physical and chemical); symbioses. -Molecular biology of aquatic life. -Behavior: Orientation in space and time; migrations; feeding and reproductive behavior; agonistic behavior. -Toxicology and water-quality effects on organisms; anthropogenic impacts on aquatic biota (e.g. pollution, fisheries); stream regulation and restoration. -Theoretical biology: mathematical modelling of biological processes and species interactions. -Methodology and equipment employed in aquatic biological research; underwater exploration and experimentation. -Exploitation of aquatic biota: Fisheries; cultivation of aquatic organisms: use, management, protection and conservation of living aquatic resources. -Reproduction and development in marine, brackish and freshwater organisms
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