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对东北大西洋欧陆架偏远海底峡谷中造礁软珊瑚石珊瑚属和鹿角珊瑚的健康调查。

A health survey of the reef forming scleractinian cold-water corals Lophelia pertusa and Madrepora oculata in a remote submarine canyon on the European continental margin, NE Atlantic.

机构信息

School of Biological, Earth and Environmental Sciences / Environmental Research Institute, University College Cork, Distillery Fields, North Mall, Cork, Ireland.

School of Biological, Earth and Environmental Sciences / Environmental Research Institute, University College Cork, Distillery Fields, North Mall, Cork, Ireland.

出版信息

J Invertebr Pathol. 2022 Jul;192:107782. doi: 10.1016/j.jip.2022.107782. Epub 2022 Jun 3.

DOI:10.1016/j.jip.2022.107782
PMID:35667398
Abstract

Monitoring of cold-water corals (CWCs) for pathogens and diseases is limited due to the environment, protected nature of the corals and their habitat and as well as the challenging and sampling effort required. It is recognised that environmental factors such as temperature and pH can expedite the ability of pathogens to cause diseases in cold-water corals therefore the characterisation of pathogen diversity, prevalence and associated pathologies is essential. The present study combined histology and polymerase chain reaction (PCR) diagnostic techniques to screen for two significant pathogen groups (bacteria of the genus Vibrio and the protozoan Haplosporidia) in the dominant NE Atlantic deep-water framework corals Lophelia pertusa (13 colonies) and Madrepora oculata (2 colonies) at three sampling locations (canyon head, south branch and the flank) in the Porcupine Bank Canyon (PBC), NE Atlantic. One M. oculata colony and four L. pertusa colonies were collected from both the canyon flank and the south branch whilst five L. pertusa colonies were collected from the canyon head. No pathogens were detected in the M. oculata samples. Neither histology nor PCR detected Vibrio spp. in L. pertusa, although Illumina technology used in this study to profile the CWCs microbiome, detected V. shilonii (0.03%) in a single L. pertusa individual, from the canyon head, that had also been screened in this study. A macroborer was observed at a prevalence of 0.07% at the canyon head only. Rickettsiales-like organisms (RLOs) were visualised with an overall prevalence of 40% and with a low intensity of 1 to 4 (RLO) colonies per individual polyp by histology. L. pertusa from the PBC canyon head had an RLO prevalence of 13.3% with the highest detection of 26.7% recorded in the south branch corals. Similarly, unidentified cells observed in L. pertusa from the south branch (20%) were more common than those observed in L. pertusa from the canyon head (6.7%). No RLOs or unidentified cells were observed in corals from the flank. Mean particulate organic matter concentration is highest in the south branch (2,612 μg l) followed by the canyon head (1,065 μg l) and lowest at the canyon flank (494 μg l). Although the route of pathogen entry and the impact of RLO infection on L. pertusa is unclear, particulate availability and the feeding strategies employed by the scleractinian corals may be influencing their exposure to pathogens. The absence of a pathogen in M. oculata may be attributed to the smaller number of colonies screened or the narrower diet in M. oculata compared to the unrestricted diet exhibited in L. pertusa, if ingestion is a route of entry for pathogen groups. The findings of this study also shed some light on how environmental conditions experienced by deep sea organisms and their life strategies may be limiting pathogen diversity and prevalence.

摘要

由于环境、珊瑚的保护性质及其栖息地以及所需的挑战性和采样工作,对冷水珊瑚(CWCs)的病原体和疾病监测受到限制。人们认识到,温度和 pH 值等环境因素可以加速病原体在冷水珊瑚中引起疾病的能力,因此,对病原体多样性、流行率和相关病理学的特征描述至关重要。本研究结合组织学和聚合酶链反应(PCR)诊断技术,在东北大西洋 Porcupine Bank Canyon(PBC)的三个采样地点(峡谷头部、南分支和侧翼),对占主导地位的东北大西洋深海框架珊瑚 Lophelia pertusa(13 个殖民地)和 Madrepora oculata(2 个殖民地)中两种重要的病原体群体(属 Vibrio 的细菌和原生动物 Haplosporidia)进行了筛查。从峡谷侧翼和南分支采集了一个 M. oculata 殖民地和四个 L. pertusa 殖民地,而从峡谷头部采集了五个 L. pertusa 殖民地。在 M. oculata 样本中未检测到病原体。组织学和 PCR 均未在 L. pertusa 中检测到 Vibrio spp.,尽管本研究中使用的 Illumina 技术用于分析 CWCs 微生物组,在一个来自峡谷头部的单独 L. pertusa 个体中检测到 V. shilonii(0.03%),该个体也在本研究中进行了筛查。仅在峡谷头部观察到宏观穿孔器的流行率为 0.07%。组织学观察到的立克次体样生物(RLOs)的总流行率为 40%,每个个体息肉的 RLO 菌落强度为 1 至 4(RLO)。来自 PBC 峡谷头部的 L. pertusa 的 RLO 流行率为 13.3%,在南分支珊瑚中记录到的最高检测率为 26.7%。同样,在南分支的 L. pertusa 中观察到的比在峡谷头部观察到的(6.7%)更多的未识别细胞。在侧翼的珊瑚中未观察到 RLO 或未识别细胞。南分支的颗粒有机物质浓度最高(2612μg l),其次是峡谷头部(1065μg l),峡谷侧翼最低(494μg l)。尽管病原体进入的途径以及 RLO 感染对 L. pertusa 的影响尚不清楚,但颗粒的可用性以及石珊瑚采用的摄食策略可能会影响它们对病原体的暴露。在 M. oculata 中未发现病原体,可能归因于筛查的殖民地数量较少,或者与 L. pertusa 相比,M. oculata 的饮食范围较窄,如果摄入是病原体群体进入的途径。本研究的结果还揭示了深海生物所经历的环境条件及其生活策略如何限制病原体多样性和流行率。

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