Abstract

The ongoing contemporary biodiversity crisis may result in much of ocean’s biodiversity to be lost or deeply modified without even being known. As the climate and anthropogenic-related impacts on marine systems accelerate, biodiversity knowledge integration is urgently required to evaluate and monitor marine ecosystems and to support suitable responses to underpin a sustainable future. The Census of Marine Life (CoML, 2000–2010) was the largest global research program on marine biodiversity. A decade after, and coinciding with the steep increase of digitalization of our society, we review existing findability, accessibility, interoperability, and reusability (FAIR) biodiversity data coming from one of the most reliable online information systems: the Global Biodiversity Information Facility (GBIF). We evaluate the completeness of available datasets with respect to the CoML benchmark, along with progresses in understanding spatial–temporal patterns of marine biodiversity in the European Seas in the last decades. Overall, we observe severe biases in available biodiversity data toward the north-western marine regions (particularly around the United Kingdom and the North Sea), the most recent years (with a peak in the number of reported occurrences in the 2010s) and the most conspicuous, abundant, and likely “appealing” taxa (e.g., crustaceans, echinoderms or fish). These biases may hamper research applications, but also global-scale data needs and integrative assessments required to support cost-effective progresses toward global biodiversity conservation. National to international joint efforts aimed at enhancing data acquisition and mobilization from poorly known regions, periods, and taxa are desirable if we aim to address these potential biases for the effective monitoring of marine ecosystems and the evaluation of ongoing impacts on biogeographic patterns and ecosystem functioning and services.

Highlights

  • There is increasing evidence that human activities over the last decades/centuries have grown to become significant driving forces of global processes

  • Our estimates of species richness were heterogeneously distributed, with the highest values largely occurring in those areas with the highest sampling effort

  • Derived thresholds informing on their saturation levels, we identify some areas (1◦ × 1◦ cells) in the European Seas where sampling effort was apparently suitable for achieving a good representation of the species richness (Figure 3)

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Summary

Introduction

There is increasing evidence that human activities over the last decades/centuries have grown to become significant driving forces of global processes. This has caused the Earth System to depart from the comparatively stable conditions that characterized the Holocene Epoch, when human societies have flourished (Steffen et al, 2011; Whitmee et al, 2015; Zalasiewicz et al, 2020). Oceanic systems are of particular concern since they are among the most important (in terms of nature contributions to people), complex, poorly understood, and likely most impacted of Earth’s biomes (Hoegh-Guldberg and Bruno, 2010; IPCC, 2014; Halpern et al, 2015; Ramírez et al, 2017). As the climate and anthropogenicrelated impacts on marine systems accelerate (Burrows et al, 2011; Coll et al, 2012; Micheli et al, 2013; Ramírez et al, 2017; Boyce et al, 2020), biodiversity knowledge integration is urgently required to evaluate and monitor marine ecosystem health, and to support suitable responses to underpin a sustainable future

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