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海洋变暖对亚热带和温带珊瑚及珊瑚礁影响的证据有哪些?一项系统综述。

What is the evidence for the impact of ocean warming on subtropical and temperate corals and coral reefs? A systematic map.

作者信息

Ho Man Lim, Lagisz Malgorzata, Nakagawa Shinichi, Perkins-Kirkpatrick Sarah, Sawyers Paige, Page Charlotte, Leggat Bill, Gaston Troy, Hobday Alistair J, Richards Zoe, Ainsworth Tracy

机构信息

Centre for Marine Science and Innovation, School of Biological, Earth and Environmental Sciences, University of New South Wales, Sydney, NSW, Australia.

Evolution and Ecology Research Centre, School of Biological, Earth, Environmental Sciences, University of New South Wales, Sydney, NSW, Australia.

出版信息

Environ Evid. 2024 Nov 21;13(1):25. doi: 10.1186/s13750-024-00349-y.

DOI:10.1186/s13750-024-00349-y
PMID:39568058
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11580339/
Abstract

BACKGROUND

Subtropical coral reefs are comparatively understudied compared to tropical coral reef ecosystems, yet also host a diverse and abundant array of marine life and provide substantial socio-economic benefits to communities. Research into the impacts of ocean warming on subtropical coral reefs has increased over the past two decades due to increase frequency and intensity of bleaching and degradation of these ecosystems. Understanding the extent of research effort and type of evidence assessing the response of subtropical corals and reefs to ocean warming provides valuable insight into global patterns in research efforts allowing critical knowledge gaps to be identified. A comprehensive understanding the impact of ocean warming on these systems will underpin our ability to predict and respond to future changes on subtropical coral reefs. Here, a systematic-map approach is used to identify recent research effort, from 2010 to 2023, and highlight patterns in the type, scale, and location of research conducted and as well as identify the availability of data and evidence reported.

METHODS

Primary literature was identified by searching Scopus and Science Citation Index Expanded through Web of Science Core Collection databases. The methodologies provided in a previously published systematic map protocol were applied, and 90 primary research publications were subsequently identified. Data extraction from the identified literature included bibliometric data, discipline and type of research, type of data reported and how it was recorded, and data availability.

FINDINGS

The identified literature consisted primarily of experimental (49%) and observational (39%) studies. The majority of the primary literature investigated corals in the ecoregions of Southern China (13%), Western Mediterranean (10%) and across a total of seven ecoregions grouped within Oceania (29%). Stressors reported in the literature as drivers of ocean warming reflect the standardisation of methods applied in reporting of events within the literature. Standardised metrics related to degree heating weeks (DHW) and marine heatwaves (MHW) have been reported when assessing the occurrence and severity of drivers, and are increasing in recent years, particularly in Australia. Finally, the need for increased research effort across much of the subtropics is evident, particularly for understudied regions such as the Western Indian Ocean where there are far fewer studies than other similar subtropical coral reef ecosystems.

CONCLUSIONS

Climatic change, increasing ocean temperatures, and the impacts to subtropical and temperate coral reefs are of increasing concern to policy makers and researchers alike. This systematic map provides a broad overview of research topics and effort around the globe since 2010 and identifies areas where more research effort is urgently needed. Our study has identified major research clusters in Asia, Australia, the Mediterranean, and North America and gaps of research in regions such as the East Indian Oceans. Of the research conducted to date approximately one third reports on evidence related to marine protected areas and the vast majority of evidence is from close/territorial sea locations, providing important knowledge base for management of these areas. Of the 17 studies reporting on specific extreme events (rather than experimental studies which is the majority of evidence identified here) 13 have been published since 2019, with the majority reporting on events occurring in 2019/20 indicating a trend of increasing evidence in recent years (a total of 7 studies from 2010 to 2013, compared to over 10 studies published annually since 2019 up to mid-2023).

摘要

背景

与热带珊瑚礁生态系统相比,亚热带珊瑚礁的研究相对较少,但也拥有丰富多样的海洋生物,并为社区带来了巨大的社会经济效益。在过去二十年中,由于这些生态系统白化和退化的频率和强度增加,对海洋变暖对亚热带珊瑚礁影响的研究有所增加。了解评估亚热带珊瑚和珊瑚礁对海洋变暖反应的研究力度和证据类型,有助于深入了解全球研究模式,从而找出关键的知识空白。全面了解海洋变暖对这些系统的影响,将有助于我们预测和应对亚热带珊瑚礁未来的变化。在此,我们采用系统地图法来识别2010年至2023年期间的近期研究工作,并突出所开展研究的类型、规模和地点模式,以及确定所报告数据和证据的可用性。

方法

通过搜索Scopus和科学引文索引扩展版(Science Citation Index Expanded),利用科学网核心合集数据库(Web of Science Core Collection databases)来识别原始文献。应用先前发表的系统地图协议中提供的方法,随后识别出90篇原始研究出版物。从已识别文献中提取的数据包括文献计量数据、研究学科和类型、所报告数据的类型及其记录方式,以及数据可用性。

结果

已识别的文献主要包括实验性研究(49%)和观测性研究(39%)。大多数原始文献研究了中国南部(13%)、西地中海(10%)生态区域的珊瑚,以及大洋洲总共七个生态区域内的珊瑚(29%)。文献中报告的作为海洋变暖驱动因素的压力源反映了文献中报告事件所采用方法的标准化。在评估驱动因素的发生和严重程度时,已报告了与加热周数(DHW)和海洋热浪(MHW)相关的标准化指标,且近年来这些指标在增加,尤其是在澳大利亚。最后,很明显在亚热带大部分地区都需要加大研究力度,特别是对于像西印度洋这样研究较少的地区,该地区的研究远少于其他类似的亚热带珊瑚礁生态系统。

结论

气候变化、海洋温度上升以及对亚热带和温带珊瑚礁的影响,越来越受到政策制定者和研究人员的关注。本系统地图提供了自2010年以来全球研究主题和工作的广泛概述,并确定了迫切需要更多研究的领域。我们的研究确定了亚洲、澳大利亚、地中海和北美的主要研究集群,以及东印度洋等地区的研究空白。在迄今为止开展的研究中,约三分之一报告了与海洋保护区相关的证据,且绝大多数证据来自近岸/领海区域,为这些区域的管理提供了重要的知识库。在报告特定极端事件的17项研究中(而非实验性研究,这里识别出的大多数证据是实验性研究),13项研究自2019年以来发表,其中大多数报告的是2019/20年发生的事件,表明近年来证据呈增加趋势(2010年至2013年共有7项研究,而自2019年至2023年年中每年发表的研究超过10项)。

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