Abstract
Background
Distributional data on planktonic, benthic and sympagic copepods collected in the framework of the XXXIVth Expeditions of the Italian National Antarctic Programme (PNRA) to the Ross Sea sector from 2018–2019 are here provided. These occurrences correspond to specimens collected from the 25 μm filters used in the desalination plant of the Italian research station "Mario Zucchelli" (MZS), located in the Terra Nova Bay area (TNB; Ross Sea, Antarctica). This dataset is a contribution to the Antarctic Biodiversity Portal, the thematic Antarctic node for both the Ocean Biogeographic Information System (AntOBIS) and the Global Biodiversity Information Facility Antarctic Biodiversity Information Facility (ANTABIF). The dataset was uploaded and integrated with the SCAR-AntOBIS database (the geospatial component of SCAR-MarBIN). Please follow the guidelines from the SCAR Data Policy (ISSN 1998-0337) when using the data. If you have any questions regarding this dataset, please contact us via the contact information provided in the metadata or via data-biodiversity-aq@naturalsciences.be. Issues with the dataset can be reported at the biodiversity-aq GitHub project.
New information
We describe the diversity of marine copepods Terra Nova Bay sampled by the filters installed in the desalination unit (DU) of the Italian research station "Mario Zucchelli" described in recent work. The opening of the intake pipe of the DU is positioned at a depth of 4 m and allowed a total of 2,116 specimens to be sampled and recognised. In addition, new occurrence records of copepod genera and species are reported in the same zone. We provide an overview of the marine copepod diversity reported for TNB. The total of 2,116 individuals corresponds to 14 genera and 15 species and is represented by 136 occurrence records in this dataset. Around 52% of the total number of species are new records for the TNB area. The publication of this data paper was funded by the Belgian Science Policy Office (BELSPO, contract n°FR/36/AN1/AntaBIS) in the Framework of EU-Lifewatch as a contribution to the SCAR Antarctic biodiversity portal (biodiversity.aq).
Keywords: Terra Nova Bay, Ross Sea, Museum collection, coastal ecosystem
Introduction
Copepoda are a major component of zooplankton assemblages and are a fundamental class in marine food webs, representing 70% of the mesozooplankton biomass (Carli et al. 2000). These organisms can be found in different ecological categories, such as neuston (Zaitsev 1971, Maki and Herwig 1991), plankton (Kim et al. 2022) and benthos (Stark et al. 2020) and have different trophic strategies (e.g. predators, filter feeders, parasites, suspension feeders) (Boxshall and Halsey 2004, Michels and Schnack-Schiel 2005). There are currently 302 planktonic copepod species in Antarctica (Razouls et al. 2022) whose distribution was recently reassessed (De Broyer et al. 2014).
Copepod communities are important in trophodynamic terms for secondary production and the grazing effect (Atkinson 1996, Hansen et al. 1997, Calbet and Landry 2004). These crustaceans represent a fundamental food web link between marine primary producers and higher consumers (Pakhomov et al. 2020), such as cnidarians, fish, seabirds and even mammals (Atkinson 1998, Turner 2004).
Their reaction to changes in environmental conditions (e.g. modifications in water column stratification and water acidification (Barton et al. 2013)) triggered by climate change is known, which may result in changes in their distribution, life cycle (Poloczanska et al. 2013) and physiological adaptations as reported by recent scientific investigations (Kim et al. 2022). Copepod assemblages represent a good environmental indicator (Edwards and Richardson 2004, Hays et al. 2005, Edwards 2009) to pinpoint and evaluate environmental changes and global and anthropogenic-made climate changes (Turner 2004, Bonello et al. 2018, Bonello et al. 2022).
Copepod communities in the Ross Sea area have been extensively studied since 1985 and were part of the objectives of the first Italian Ocenographic Expeditions of the PNRA (Amato 1990). The scientific team of those expeditions studied the biodiversity and ecological roles of planktonic copepods (Carli et al. 1989, Carli et al. 1990, Zunini Sertorio et al. 1990, Guglielmo et al. 1990, Zunini Sertorio et al. 1992, Bonello et al. 2020, Carli et al. 2000, Zunini Sertorio et al. 2000, Carli et al. 2002, Pane et al. 2004, Grillo et al. 2022) and their association with pack-ice (Guglielmo et al. 2007, Granata et al. 2009, Guglielmo et al. 2015, Granata et al. 2022); however, to date, information regarding the diversity of benthic copepods is still scarce.
In Bonello et al. (2020), a total of 8,224 specimens of Antarctic copepods are reported, after the analysis of materials from the IIIrd, Vth and Xth Italian Antarctic expeditions, which led to the production of the first checklist for this taxon in the area. This checklist, in addition to the physical samples currently deposited in the biological collection of the Italian National Antarctic Museum (MNA), contains the digitised data, mostly belonging to grey literature, recovered from the PNRA expedition reports. The authors digitised campaigns and distribution data for each copepod species, resulting in a copepod community historical baseline for future research comparison. During the XXXIVth PNRA expedition (2018–2019), neritic copepod diversity obtained from the DU filters of the Italian research base “Mario Zucchelli” (MZS) (Terra Nova Bay, Ross Sea) was collected from the desalination plant. The use of DU as a sampling method has already been applied for the study of nanoplankton (Cecchetto et al. 2021), picoplankton, phytoplankton (Balzano et al. 2015) and invertebrate larval stages (Heimeier et al. 2010a, Heimeier et al. 2010b). Here, we report the copepod samples collected using this sampling technique during that expedition, from 29 December 2018 to 02 February 2019.
Previous MNA contributions focused on Mollusca, Tanaidacea, Fungi, Ophiuroidea, Porifera, Bryozoa, Rotifera, Asteroidea and Copepoda (Ghiglione et al. 2013, Piazza et al. 2014, Selbmann et al. 2015, Cecchetto et al. 2017, Ghiglione et al. 2018, Cecchetto et al. 2019, Bonello et al. 2020, Garlasché et al. 2020, Guzzi et al. 2022). The special issue that included this publication contains additional articles that centre on specific marine animals, such as Holothurians (Guzzi et al., in prep.), Amphipods (Cecchetto et al., in prep.), Isopods (Noli et al., in prep.), fouling ARMS (Cometti et al., in prep.) and fish. This dataset also represents another Italian contribution to the CCAMLR CONSERVATION MEASURE 91-05 (2016) for the Ross Sea region Marine Protected Area, specifically addressing Annex 91-05/C (“long-term monitoring of benthic ecosystem functions”).
Project description
Title
Planktonic, benthic and sympagic copepods collected in the desalination unit during the XXXIVth Expedition of the Italian National Antarctic Program (PNRA).
Personnel
Grillo Marco, Bonello Guido, Cecchetto Matteo, Guzzi Alice, Noli Nicholas, Cometti Valentina, Schiaparelli Stefano.
Study area description
The distributional data of the copepods studied in this data paper derives from the XXXIVth PNRA Antarctic expedition (Fig. 1). The seawater intake pipeline of the desalination plant (−74.693°, 164.118°) opens at a depth of 4 m in the locality of "Punta Stocchino." "Punta Stocchino" is located on the rocky promontory facing MZS and is about 200 m long. This area is located in the centre of Terra Nova Bay, which is located between the Drygalski Ice Tongue and the Cape Washington Penisula. The sampling timeframe was between 29 December 2018 and 2 February 2019.
Figure 1.
Location of the desalination plant intake pipe (black circle).
Funding
Data originated in the framework of the PNRA XXXIVth Antarctic Expeditions (2018–2019) within the PNRA-funded research projects ”TNB-CODE" - Barcoding e metabarcoding di organismi Antartici marini, terrestri e limnetici”. Mario Zucchelli Station (Project code PNRA 2016/AZ1.17; PI Prof. Schiaparelli S.) and "RosS-MODe“ - Ross Sea biodiversity Monitoring through barcoding, metabarcODing and e-DNA” (Project code PNRA 18_00078; PI Prof. Ficetola F.).
The Italian National Antarctic Museum (MNA) hired two experts, G. Bonello and M. Grillo, with research contracts #2993 and #2992 issued on 25 June 2019, to analyse and identify to the lowest possible taxonomic resolution which the specimens represent in the samples.
The publication of this data paper was funded by the Belgian Science Policy Office (BELSPO, contract n°FR/36/AN1/AntaBIS) in the Framework of EU-Lifewatch as a contribution to the SCAR Antarctic biodiversity portal .
Sampling methods
Sampling description
Samples were collected using the DU plant of MZS (Fig. 2), whose intake pipe is located at 4 m of depth in the locality of "Punta Stocchino". This plant is used to provide freshwater for the research base's activities, operating during the entire expedition’s summer season, generally from mid-October to the beginning of February. From the seawater intake pipe, a series of pipes and valves allow the water to flow to the main structure of the plant, located inside the research station, where the first steps of filtration (called “pre-filtration”) are conducted. These steps consist of a series of disposable filters positioned sequentially with a decreasing mesh size. The first one is packed with anthracite, followed by polyester bag filters of 25 μm mesh size and, finally, by polypropylene cartridges of 5 μm mesh size. The samples reported in this dataset were obtained from the biological material recovered by the 25 μm mesh size filters. More information on the technical specifications of the MZS DU plant can be found in Cecchetto et al. (2021).
Figure 2.

Desalination unit of Mario Zucchelli Station.
Quality control
All records were validated. Coordinates were converted into decimal latitude and decimal longitude and plotted to verify the geographical location and locality. All scientific names were checked for typos and matched to the species information backbone of Worlds Register of Marine Species and AphiaID was assigned to each taxon as scientificNameID. The event date and time were converted into ISO 8601 and verified with the field reports.
Step description
The 25 μm mesh size filters are replaced by the DU plant’s technician as soon as the pressure inside the filter housing reaches warning levels to prevent the clogging of the system. After removing the filters from their respective housings, the same were transported to the laboratory and processed following Cecchetto et al. (2022). Briefly, the filters, after removing the metal ring placed at the opening of the filter, were cut longitudinally in order to access their content, i.e. the biological material filtered (Fig. 3). Using a scalpel with sterilised, disposable blades, different cuts were performed in different positions of the filter and stored at −20°C, obtaining pieces of the filter that would later be used for metagenomic research purposes. From the remaining parts of the filter, depending on the amount of biological material present on the filter’s surface, different 15-ml Falcon tubes of material were scooped from the filter’s surface using a sterilised spatula and all the materials treated were then brought to volume with 96% ethanol. The Falcon tubes contained a mix of phytoplanktonic and zooplanktonic organisms in different ratios, depending on the biological community that was present in the water column facing the DU intake pipe during the filters’ operating time. The samples, stored at +4°C, were shipped to the MNA (Genoa section) laboratories, where the content of the Falcon tubes was sorted and analysed.
Figure 3.
Filter bag (25 µm mesh) with bulk filtered biological material. a) Detail of the open lower portion of the filter bag; b) Paralabidoceraantarctica (Thompson I.C., 1898) found in the filter.
The collected copepods were counted and identified at the lowest possible level by GB and MG, based on morphological examination and by considering historic and recent bibliography (e.g. Bonello et al. (2020), Boxshall and Halsey (2004)). The online portals World Registry of Marine Species (WoRMS) and Banyuls sur Mer marine Copepoda database (Razouls et al. 2022) were used to confirm the acceptance of species names. When identification was inconclusive, only genus or family names were assigned. For the specimens recognised in this dataset, selected individuals were used to produce high-resolution images of morphological characters useful to species classification. Various acquisition techniques were performed to obtain these photos, such as scanning electron microscopy (SEM) and fluorescence microscopy with different colourations (Congo Red and Fuchsin) (Michels and Büntzow 2010, Ivanenko et al. 2012).
The original unsorted plankton matrix is stored in 96% ethanol and refrigerated at −20°C. The copepod specimens, split, sorted and identified, are in 96% ethanol or fixed on a slide and permanently deposited in the biological collection of the MNA with a specific MNA voucher number (from MNA-13263 to MNA-13174, from MNA-13276 to MNA-13278, from MNA-13743 to MNA-13748, MNA-13754, from MNA-13764 to MNA-13768, from MNA-15192 to 15197, from MNA-15199 to MNA-15250, MNA-15252, MNA-15253, MNA-15624 and MNA-15625). Antarctic copepod distribution data have been uploaded to the GBIF portal.
A metabarcoding methodology was also applied to the DU plant’s filters and only some preliminary and qualitative results are here reported. Specifically, the relative abundance of 18S rRNA sequences identified by the taxonomic identification of the metabarcoding protocol as copepods with respect to the total number of sequences is here reported only to illustrate the temporal dynamics that could be discerned by the metabarcoding approach during the sampling period (Fig. 4).
Figure 4.
Percentage variation of occurrences by copepod family (bar graph) during the sampling period and the relative percentage composition of taxa obtained from DNA analysis (pie chart).
Geographic coverage
Description
Samples were collected at one location, the Italian “Mario Zucchelli” research station (MZS) in Terra Nova Bay (TNB) (Ross Sea, Antarctica) (Fig. 1), over several days.
Coordinates of desalination unit: −74.693° latitude; 164.118° longitude.
Taxonomic coverage
Description
The Copepoda diversity of the dataset is displayed in a total of 167 MNA vouchers (comprising vials with single species isolated from bulk samples and glass slides with dissected or whole specimens) collected during nine different sampling days (i.e. when filters have been changed). A total of 2,116 individuals were obtained, with Harpacticoida representing the most frequent order (52.1%), followed by Calanoida (44.3%) and Cyclopida (3.6%).
Copepod species sampled via the DU consist of 14 families (Fig. 5), 17 genera and 14 species with 49 morphotypes that could not be identified and indicated as "sp." or "spp." in the dataset.
Figure 5.
Diversity and relative frequency percentage at the family level for the number of individuals in the dataset.
The most frequent families were Acartiidae (30.53%), Dactylopusiidae (24.55%) and Tisbidae (14.37%), while less frequent families have been Calanidae (7.18%), Harpacticidae (5.38%), Stephidae (4.79%), Ameiridae (2.40%), Hemicyclopinidae (2.40%), Ancorabolidae (1.80%), Metridinidae (1.80%), Peltidiidae (1.80%), Oithonidae (1.20%), Laophontidae (0.60%) and Scolecitrichidae (0.60%) and undefined (0.60%) (Fig. 5).
Regarding the life stages of the specimens, the dataset is composed of a majority of adults (94%), followed by the copepodite stages (6%).
From the literature review, the copepods found inside the DU samples can, generally, be assigned to the following habitats: benthos (47.90%), ice (35.33%), plankton (10.78%), benthos/ice (5.39%); the remaining 0.6% could not be assessed and are reported as unidentified. Fig. 4 shows, for each sampling date, the percentage variation of occurrences by copepod family (bar graph) and the percentage taxonomic composition obtained from DNA analysis (pie chart). Species and genera with the symbol (*) in the following table indicate that they represent new records for the TNB site.
Taxa included
| Rank | Scientific Name | |
|---|---|---|
| kingdom | Animalia | |
| phylum | Arthropoda | |
| class | Maxillopoda | |
| order | Calanoida | |
| order | Cyclopoida | |
| order | Harpacticoida | |
| family | Acartiidae | |
| family | Ameiridae | |
| family | Ancorabolidae | |
| family | Calanidae | |
| family | Dactylopusiidae | |
| family | Harpacticidae | |
| family | Hemicyclopinidae | |
| family | Laophontidae | |
| family | Metridinidae | |
| family | Oithonidae | |
| family | Oncaeidae | |
| family | Peltidiidae | |
| family | Scolecitrichidae | |
| family | Stephidae | |
| family | Tisbidae | |
| genus | Alteutha Baird, 1846 * | |
| genus | Ameira Boeck, 1865* | |
| genus | Calanoides Brady, 1883 | |
| genus | Calanus Leach, 1816 | |
| genus | Dactylopusia Norman, 1903* | |
| genus | Harpacticus Milne Edwards H., 1840 | |
| genus | Laophonte Philippi, 1840 | |
| genus | Laophontodes Scott T., 1894* | |
| genus | Lophotrix Giesbrecht, 1895* | |
| genus | Metridia Boek, 1865 | |
| genus | Oithona Braird, 1843 | |
| genus | Paradactylopodia Lang, 1944 | |
| genus | Paralabidocera Wolfenden, 1908 | |
| genus | Pseudocyclopina Lang, 1946* | |
| genus | Stephos Scott T., 1892 | |
| genus | Tisbe Lilljeborg, 1853 | |
| species | Alteuthadepressa (Bairf, 1837)* | |
| species | Calanoidesacutus (Giesbrecht, 1902) | |
| species | Calanuspropinquus Brady, 1883 | |
| species | Dactypusiatisboides (Claus, 1863)* | |
| species | Harpacticusfurcifer Giesbrecht, 1902 | |
| species | Laophonteglacialis Brady, 1910 | |
| species | Laophontodestypicus Scott T., 1894* | |
| species | Metridiagerlachei Giesbrecht, 1902 | |
| species | Oithonasimilis Claus, 1866 | |
| species | Paradactylopodiabrevicornis (Claus, 1866)* | |
| species | Paralabidoceraantarctica (Thompson I.C., 1898) | |
| species | Pseudocyclopinaberndtreyi Elwers, Martínez Arbizu & Fiers, 2001* | |
| species | Stephoslongipes Giesbrecht, 1902 | |
| species | Tisbegracilipes Scott T., 1912 |
Temporal coverage
Notes
29 December 2018 to 02 February 2019.
Collection data
Collection name
MNA - Biological Collections
Collection identifier
https://www.gbif.org/grscicoll/collection/a57a1dc1-706c-42db-bbad-1e68d9685439
Parent collection identifier
Italian National Antarctic Museum (section of Genoa)
Specimen preservation method
specimens in jars in 96% ethanol, slides with whole or dissected organisms (fixed in glycerol) and frozen at −20°C.
Usage licence
Usage licence
Other
IP rights notes
The dataset was published under the licence CC-BY 4.0.
Data resources
Data package title
Planktonic, benthic and sympagic copepods collected in the desalination unit during the XXXIVth Expedition of the Italian National Antarctic Programme (PNRA)
Resource link
Alternative identifiers
https://ipt.biodiversity.aq/resource?r=mna_planktonic-benthic-sympagic-copepod https://ipt.biodiversity.aq/archive.do?r=mna_planktonic-benthic-sympagic-copepod&v=1.7
Number of data sets
1
Data set 1.
Data set name
Planktonic, benthic and sympagic copepods collected in the desalination unit during the XXXIVth Expedition of the Italian National Antarctic Programme (PNRA).
Data format
Darwin Core
Description
This dataset is built on information from the copepod specimens analysed in this work. The aims and objectives of the XXXIVth PNRA can be found in the related campaign report (Melchiori 2019). The samples were pooled into a single dataset. This dataset will be useful to investigate the community structure of zooplankton and their relative larval stages.
Data set 1.
| Column label | Column description |
|---|---|
| occurrenceID | A global unique identifier for the Occurrence (as opposed to a particular digital record of the occurrence). |
| institutionCode | The name (or acronym) in use by the institution having custody of the object(s) or information referred to in the record. |
| instituitonID | An identifier for the institution having custody of the object(s) or information referred to in the record. |
| collectionCode | The name, acronym, coden or initialism identifying the collection or dataset from which the record was derived (as shown on the Global Registry of Scientific Collections). |
| collectionID | An identifier for the collection or dataset from which the record was derived. |
| catalogNumber | An identifier of any form assigned by the source within a physical collection or digital dataset for the record which may not be unique, but should be fairly unique in combination with the institution and collection code. |
| basisOfRecord | The specific nature of the data record and is here always reported as “PreservedSpecimen”. |
| type | Defines the nature of the resource, here is always “PhysicalObject”. |
| scientificName | The identification at the lowest taxonomic rank, without authorship information. |
| TaxonRank | The taxonomic rank of the most specific name in the scientificName. |
| kingdom | The full scientific name of the kingdom in which the taxon is classified. |
| phylum | The full scientific name of the phylum in which the taxon is classified. |
| class | The full scientific name of the class in which the taxon is classified. |
| order | The full scientific name of the order in which the taxon is classified. |
| family | The full scientific name of the family in which the taxon is classified. |
| genus | The full scientific name of the genus in which the taxon is classified. |
| specificEpithet | The name of the first or species epithet of the scientificName. |
| scientificNameAuthorship | The authorship information for the scientificName formatted according to the conventions of the applicable. |
| identificationQualifier | Abrief phrase or a standard term (sp., spp.) to express the determiner's doubts about the Identification. |
| scientificNameID | The globally unique identifier for the taxonomic information related to the scientificName and stored in WoRMS, the AphiaID. |
| individualCount | The number of individuals present. |
| sex | The sex of the identified specimens. |
| lifeStage | The life stage of organisms. In detail: CI: copepodite I, CII: copepodite II, CIII: copepodite III, CIV: copepodite IV; CV: copepodite V. |
| occurrenceRemarks | Campaign in which the organisms were sampled. |
| eventDate | Date the organisms were sampled. |
| year | Sampling year. |
| month | Sampling month. |
| day | Sampling day. |
| eventID | Unique code with data relating to the campaign and sampling date. |
| decimalLatitude | The geographic latitude (in decimal degrees, using the spatial reference system given in geodeticDatum). |
| decimalLongitude | The geographic longitude (in decimal degrees, using the spatial reference system given in geodeticDatum). |
| geodedicDatum | Spatial reference system (WGS84) upon which the geographic coordinates given in decimalLatitude and decimalLongitude are based. |
| minimumDepthInMetres | Minimum sampling depth during event in metres. |
| maximumDepthInMetres | Maximum sampling depth during event in metres. |
| samplingProtocol | Gear used to collect specimens and relative DOI of manuscript in which the sampling method is described. |
| eventRemarks | Filter number of the desalinisation unit plants. |
| preparations | Alist of preparations and preservation methods for a specimen. In detail: whole organism (96% ethanol), whole organism (slide fixed in glycerol) and dissected organism (slide fixed in glycerol). |
| taxonRemarks | Remarks on taxa, in this case, which ecological category the analysed species occupy. |
| coordinateUncertaintyInMetres | Horizontal distance, measured in metres, between the given decimal latitude and decimal longitude represents the radius of the minimum circle that includes the entire area. |
| occurrenceStatus | Astatement about the presence or absence of a specimen. |
| continet | Continent where the organisms were sampled. |
| countryCode | The standard code for the country where the organisms were sampled. |
| recordedBy | Surname and name of the personnel who collected the samples. |
| recordedByID | ORCID of the personnel who collected the samples. |
| identifiedBy | Surname and name of the personnel who analysed and recognised the single species. |
| identifiedByID | ORCID of the personnel who analysed and recognised the single species. |
| coordinatePrecision | A decimal representation of the precision of the coordinates given in the decimalLatitude and decimalLongitude. |
Acknowledgements
This paper is an Italian National Antarctic Programme (PNRA) contribution to the CCAMLR CONSERVATION MEASURE 91-05 (2016) for the Ross Sea region Marine Protected Area, specifically addressing the priorities of Annex 91-05/C. The National Antarctic Museum is acknowledged for research contracts #2992 and #2993 with Dr. G. Bonello and M. Grillo. The PNRA project “TNB-CODE” (“Terra Nova Bay barCODing and mEtabarcoding of Antarctic organisms from marine and limno-terrestrial environments”, PNRA 16_00120, PI: S. Schiaparelli) is acknowledged for the molecular data shown in Fig. 3. The publication of this data paper was funded by the Belgian Science Policy Office (BELSPO, contract n°FR/36/AN1/AntaBIS) in the Framework of EU-Lifewatch as a contribution to the SCAR Antarctic biodiversity portal (biodiversity.aq). We are indebted to Dr. Anton Van De Putte and Dr. Yi Ming Gan for their much-appreciated advice on metadata standards and the Darwin core archive format. We thank anonymous reviewers for their precious suggestions and comments that improved the initial manuscript version.
Author contributions
Conceptualisation, G.M., B.G. and S.S.; methodology, G.M., B.G. and S.S.; formal analysis, G.M. and B.G.; resources, G.M. and B.G.; data acquisition G.M., B.G.; data curation, G.M. and S.S.; writing—original draft preparation, G.M.; writing—review and editing, G.M., B.G., C.M., G.A., N.N., C.V. and S.S.; funding acquisition, S.S. All authors have read and agreed to the published version of the manuscript.
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