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盐的保存:高盐生态系统的生态学和保护研究综述。

Salt to conserve: a review on the ecology and preservation of hypersaline ecosystems.

机构信息

Trace and Environmental DNA (TrEnD) Lab, School of Molecular and Life Sciences, Curtin University, Kent St, Bentley, WA, 6102, Australia.

Instituto de Ciencias Naturales Alexander von Humboldt, Universidad de Antofagasta, Avenida Angamos 601, Antofagasta, Chile.

出版信息

Biol Rev Camb Philos Soc. 2021 Dec;96(6):2828-2850. doi: 10.1111/brv.12780. Epub 2021 Jul 19.

DOI:10.1111/brv.12780
PMID:34747117
Abstract

When it comes to the investigation of key ecosystems in the world, we often omit salt from the ecological recipe. In fact, despite occupying almost half of the volume of inland waters and providing crucial services to humanity and nature, inland saline ecosystems are often overlooked in discussions regarding the preservation of global aquatic resources of our planet. As a result, our knowledge of the biological and geochemical dynamics shaping these environments remains incomplete and we are hesitant in framing effective protective strategies against the increasing natural and anthropogenic threats faced by such habitats. Hypersaline lakes, water bodies where the concentration of salt exceeds 35 g/l, occur mainly in arid and semiarid areas resulting from hydrological imbalances triggering the accumulation of salts over time. Often considered the 'exotic siblings' within the family of inland waters, these ecosystems host some of the most extremophile communities worldwide and provide essential habitats for waterbirds and many other organisms in already water-stressed regions. These systems are often highlighted as natural laboratories, ideal for addressing central ecological questions due to their relatively low complexity and simple food web structures. However, recent studies on the biogeochemical mechanisms framing hypersaline communities have challenged this archetype, arguing that newly discovered highly diverse communities are characterised by specific trophic interactions shaped by high levels of specialisation. The main goal of this review is to explore our current understanding of the ecological dynamics of hypersaline ecosystems by addressing four main research questions: (i) why are hypersaline lakes unique from a biological and geochemical perspective; (ii) which biota inhabit these ecosystems and how have they adapted to the high salt conditions; (iii) how do we protect biodiversity from increasing natural and anthropogenic threats; and (iv) which scientific tools will help us preserve hypersaline ecosystems in the future? First, we focus on the ecological characterisation of hypersaline ecosystems, illustrate hydrogeochemical dynamics regulating such environments, and outline key ecoregions supporting hypersaline systems across the globe. Second, we depict the diversity and functional aspects of key taxa found in hypersaline lakes, from microorganisms to plants, invertebrates, waterbirds and upper trophic levels. Next, we describe ecosystem services and discuss possible conservation guidelines. Finally, we outline how cutting-edge technologies can provide new insights into the study of hypersaline ecology. Overall, this review sheds further light onto these understudied ecosystems, largely unrecognised as important sources of unique biological and functional diversity. We provide perspectives for key future research avenues, and advocate that the conservation of hypersaline lakes should not be taken with 'a grain of salt'.

摘要

当涉及到世界上关键生态系统的调查时,我们常常忽略盐在生态系统中的作用。事实上,尽管内陆咸水生态系统占据了内陆水域体积的近一半,并为人类和自然提供了至关重要的服务,但在讨论保护我们地球的全球水生资源时,它们往往被忽视。因此,我们对塑造这些环境的生物和地球化学动态的了解仍然不完整,我们在制定针对这些栖息地面临的日益增加的自然和人为威胁的有效保护策略方面犹豫不决。高盐湖泊是指盐浓度超过 35g/L 的水体,主要出现在由于水文失衡导致盐分随时间积累的干旱和半干旱地区。这些生态系统通常被认为是内陆水域家族中的“奇异兄弟”,它们拥有世界上一些最极端的生物群落,并为已经面临水资源压力的水鸟和许多其他生物提供重要的栖息地。这些系统经常被作为天然实验室来强调,由于其相对较低的复杂性和简单的食物网结构,非常适合解决核心生态问题。然而,最近关于塑造高盐社区的生物地球化学机制的研究挑战了这一模式,认为新发现的高度多样化的社区具有特定的营养相互作用,这些相互作用由高水平的专业化所塑造。本综述的主要目的是通过回答四个主要研究问题来探讨我们对高盐生态系统生态动态的现有认识:(i)为什么从生物和地球化学的角度来看,高盐湖泊是独特的;(ii)哪些生物群落在这些生态系统中栖息,它们如何适应高盐条件;(iii)我们如何保护生物多样性免受日益增加的自然和人为威胁的影响;以及(iv)哪些科学工具将帮助我们保护未来的高盐生态系统?首先,我们关注高盐生态系统的生态特征,说明调节这些环境的水文地球化学动态,并概述支持全球高盐系统的关键生态区。其次,我们描述了在高盐湖泊中发现的关键类群的多样性和功能方面,从微生物到植物、无脊椎动物、水鸟和上层营养级。接下来,我们描述了生态系统服务,并讨论了可能的保护准则。最后,我们概述了如何利用前沿技术为高盐生态学研究提供新的见解。总的来说,本综述进一步揭示了这些研究不足的生态系统,它们在很大程度上未被视为独特生物和功能多样性的重要来源。我们为未来的关键研究方向提供了观点,并主张不应对高盐湖泊的保护持“半信半疑”的态度。

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