Climate change impacts on a sedimentary coast—a regional synthesis from genes to ecosystems

IF 1.5 4区 环境科学与生态学 Q3 BIODIVERSITY CONSERVATION
Christian Buschbaum, L. N. S. Shama, F. L. L. Amorim, S. Brand, C. M. A. Broquard, N. Camillini, A. Cornelius, T. Dolch, A. Dummermuth, J. Feldner, M. S. Guignard, J. Habedank, J. J. L. Hoffmann, S. Horn, G. Konyssova, K. Koop-Jakobsen, R. Lauerburg, K. Mehler, V. Odongo, M. Petri, S. Reents, J. J. Rick, S. Rubinetti, M. Salahi, L. Sander, V. Sidorenko, H. C. Spence-Jones, J. E. E. van Beusekom, A. M. Waser, K. M. Wegner, K. H. Wiltshire
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引用次数: 0

Abstract

Climate change effects on coastal ecosystems vary on large spatial scales, but can also be highly site dependent at the regional level. The Wadden Sea in the south-eastern North Sea is warming faster than many other temperate coastal areas, with surface seawater temperature increasing by almost 2 °C over the last 60 years, nearly double the global ocean mean increase. Climate warming is accompanied by rising sea levels, which have increased by approximately 2 mm yr−1 over the last 120 years. For this sedimentary coast, the predicted acceleration of sea-level rise will have profound effects on tidal dynamics and bathymetry in the area. This paper synthesises studies of the effects of ocean warming and sea level rise in the northern Wadden Sea, largely based on research conducted at the Wadden Sea Station Sylt of the Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research. An increasing rate of sea level rise above a critical threshold will lead to coastal erosion and changes in sediment composition, and may cause the transition from a tidal to lagoon-like environment as tidal flats submerge. This involves changes to coastal morphology, and the decline of important habitats such as muddy tidal flats, salt marshes and seagrass meadows, as well as their ecological services (e.g. carbon sequestration). Ocean warming affects plankton dynamics and phenology, as well as benthic community structure by hampering cold-adapted but facilitating warm-adapted species. The latter consist mostly of introduced non-native species originating from warmer coasts, with some epibenthic species acting as ecosystem engineers that create novel habitats on the tidal flats. Warming also changes interactions between species by decoupling existing predator–prey dynamics, as well as forming new interactions in which mass mortalities caused by parasites and pathogens can play an understudied but essential role. However, Wadden Sea organisms can adapt to changing abiotic and biotic parameters via genetic adaptation and phenotypic plasticity, which can also be inherited across generations (transgenerational plasticity), enabling faster plastic responses to future conditions. Important research advances have been made using next-generation molecular tools (-omics), mesocosm experiments simulating future climate scenarios, modelling approaches (ecological network analysis), and internet-based technologies for data collection and archiving. By synthesising these climate change impacts on multiple levels of physical and biological organisation in the northern Wadden Sea, we reveal knowledge gaps that need to be addressed by future investigations and comparative studies in other regions in order to implement management, mitigation and restoration strategies to preserve the uniqueness of this ecosystem of global importance.

Abstract Image

气候变化对沉积海岸的影响--从基因到生态系统的区域综述
气候变化对沿岸生态系统的影响在大的空间尺度上各不相同,但在区域层面上也可 能高度依赖于地点。北海东南部瓦登海的变暖速度快于许多其他温带沿海地区,在过去 60 年中,表层海水温度上升了近 2 ℃,几乎是全球海洋平均温度升幅的两倍。气候变暖伴随着海平面上升,在过去 120 年中,海平面每年上升约 2 毫米。对这一沉积海岸而言,预测的海平面加速上升将对该地区的潮汐动力学和水深测量产生深远影响。本文综合了对瓦登海北部海洋变暖和海平面上升影响的研究,这些研究主要基于阿尔弗雷德-魏格纳研究所亥姆霍兹极地与海洋研究中心瓦登海 Sylt 站的研究。海平面上升速度超过临界值,将导致海岸侵蚀和沉积物成分的变化,并可能随着潮滩被淹没而从潮汐环境过渡到泻湖环境。这涉及到海岸形态的变化,以及泥质滩涂、盐沼和海草草甸等重要生境及其生态服务功能(如碳封存)的衰退。海洋变暖会影响浮游生物的动力学和物候学以及底栖生物群落结构,阻碍适应寒冷的物种,但有利于适应温暖的物种。后者主要由来自较暖海岸的外来物种组成,其中一些底栖物种是生态系统的工程师,在滩涂上创造了新的栖息地。气候变暖还改变了物种之间的相互作用,使现有的捕食者与猎物之间的动态关系脱钩,并形成了新的相互作用,其中寄生虫和病原体造成的大规模死亡可能发挥着研究不足但至关重要的作用。然而,瓦登海生物可通过遗传适应性和表型可塑性来适应不断变化的非生物和生物参数,而遗传适应性和表型可塑性还可跨代遗传(跨代可塑性),从而对未来条件做出更快的可塑性反应。利用下一代分子工具(组学)、模拟未来气候情景的中观宇宙实验、建模方法(生态网络分析)以及基于互联网的数据收集和存档技术,已经取得了重要的研究进展。通过综合这些气候变化对瓦登海北部多层次物理和生物组织的影响,我们揭示了未来调查和其他地区比较研究需要解决的知识差距,以便实施管理、缓解和恢复战略,保护这一具有全球重要性的生态系统的独特性。
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来源期刊
Marine Biodiversity
Marine Biodiversity BIODIVERSITY CONSERVATION-MARINE & FRESHWATER BIOLOGY
CiteScore
3.30
自引率
6.20%
发文量
56
期刊介绍: Marine Biodiversity is a peer-reviewed international journal devoted to all aspects of biodiversity research on marine ecosystems. The journal is a relaunch of the well-known Senckenbergiana maritima" and covers research at gene, species and ecosystem level that focuses on describing the actors (genes and species), the patterns (gradients and distributions) and understanding of the processes responsible for the regulation and maintenance of diversity in marine systems. Also included are the study of species interactions (symbioses, parasitism, etc.) and the role of species in structuring marine ecosystem functioning. Marine Biodiversity offers articles in the category original paper, short note, Oceanarium and review article. It forms a platform for marine biodiversity researchers from all over the world for the exchange of new information and discussions on concepts and exciting discoveries. - Covers research in all aspects of biodiversity in marine ecosystems - Describes the actors, the patterns and the processes responsible for diversity - Offers peer-reviewed original papers, short communications, review articles and news (Oceanarium) - No page charges
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