使海洋生境建模方法标准化,以提高生物观测结果的相互可比性

Alexandre Schickele, Corentin Clerc, Fabio Benedetti, Daniele De Angelis, Urs Hofmann Elizondo, Matthias Muennich, Jean-Olivier Irisson, Meike Vogt
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引用次数: 0

摘要

近年来,可获取的海洋水层观测数据量呈指数级增长,目前已包含大量新数据类型,包括从元基因组学和定量成像中获取的信息。这就要求对分类学上统一的观测数据进行标准化建模,以更好地预测空间和时间上的生物地理格局,从而在宏观生态尺度上研究海洋生态系统结构和功能。在此背景下,我们推出了 CEPHALOPOD(大规模海洋远洋观测数据集生境建模综合集合管道),这是一个标准化的灵活框架,可跨数据类型和数据源执行多物种海洋生境建模。我们基于 AtlantECO、OBIS、GBIF 等联合计划的观测数据,结合现有的统计和机器学习方法,建立了这一新框架,从而能够从异构、稀缺和有偏差的实地观测数据中提取信息并建立模型。在此,我们首先记录了我们的统计集合建模方法,然后用虚拟生态学家方法评估了其优势和局限性。我们展示了我们的框架如何从有偏差的实地样本中再现一系列分布。然后,我们通过研究丰度和元基因组数据中的全球嗜茧动物多样性模式,说明了该框架的性能和不同数据类型的可比性。我们的建模框架为持续生成基本生物多样性和海洋变量(EBVs 和 EOVs)奠定了基础,并有可能极大地促进我们对生物多样性和海洋生态系统功能的理解。最后,它为促进海洋科学领域的合作和可持续生态实践提供了前所未有的机会,并最终为保护全球海洋生物多样性做出贡献。
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Standardizing marine habitat modelling practices to enhance inter-comparability across biological observations
In recent years, the volume of accessible marine pelagic observations has increased exponentially and now incorporates a wealth of new data types, including information derived from metagenomics and quantitative imaging. This calls for standardized modelling protocol across taxonomically harmonized observations, to better predict biogeographic patterns in space and time, and thus investigate marine ecosystem structure and functioning on a macroecological scale. In this context, we introduce CEPHALOPOD (Comprehensive Ensemble Pipeline for Habitat modelling Across Large-scale Ocean Pelagic Observation Datasets), a standardized and flexible framework to perform multi-species marine habitat modelling across data types and data sources. We built this new framework on observational data from federating initiatives such as AtlantECO, OBIS, GBIF, associated with already existing statistical and machine learning methods that enable to extract and model information from heterogeneous, scarce, and biased field observations. Here, we first document our statistical ensemble modelling approach and then assess its strength and limitations with a virtual ecologist approach. We show how our framework performs in reproducing a range of distributions from biased field samples. Then, we illustrate its performance and comparability across data types by investigating the global diversity patterns of coccolithophores from both abundance and metagenomic data. Our modelling framework serves as a foundation for the consistent generation of Essential Biodiversity and Ocean Variables (EBVs and EOVs) and carries the potential to significantly advance our comprehension of biodiversity and marine ecosystems functioning. Finally, it provides an unprecedented opportunity to foster collaborations in the field of marine science, sustainable ecological practices, and, ultimately, contribute to the preservation of global marine biodiversity.
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