AnimaliaNot EvaluatedacceptedphylumAccepted
Annelida

Annelida

lađasmáđut(+57)

GBIF:42

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PROFILE

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Descriptions(13)

(Fig. 17)
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Description. Pyritic tubes 0.3 – 7.0 mm in diameter, nontapering, sometimes gently curved and with smooth walls (Fig. 17 A, B) (Little et al. 1999 c). The tube walls were originally described to be formed of fine-grained pyrite which is occasionally colloform (Little et al. 1999 c). In thin sections examined during the present study, the tube walls appear thick and may be multi-layered (Fig. 17 C), and some also appear to be comprised of framboidal pyrite (Fig. 17 D).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Remarks. These tubes exhibit few distinguishing characteristics, which led to their previous diagnosis as indeterminate? annelid tubes (Little et al. 1999 c). As we were unable to find further characters, the tubes were largely unresolved within cluster and cladistic analyses (Figs 22, 24). The indeterminate status of the tubes is therefore maintained. They are tentatively suggested to be annelid tubes due to their smooth, thick and possibly multi-layered walls, and as they do not closely resemble the tubes of other Palaeozoic tubicolous animals.
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Material. NHMUK VF 71, cluster of tubes. Collected by C. T. S. Little. Occurrence. Sibay massive sulphide deposit, southern Ural Mountains, Russia (52 º 41.66 ' N, 58 º 38.15 ' E). Middle-Lower Devonian (Little et al. 1999 c; Shpanskaya et al. 1999).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
‘ Sibay tubes’
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Description. Carbonate tube sections measuring 2.9 – 5.7 mm in diameter, all fairly straight, and not attached to other tubes. The long tube appears unornamented (Fig. 14 A) and the tube with a black wall is smooth and shows no ornamentation apart from a possible small collar (Fig. 14 B), while the remaining tube fragment bears what may be faint longitudinal wrinkles (Fig. 14 C). In thin section, some of the tubes exhibit thick, neatly multi-layered walls (Fig. 14 D, E). Curving delaminated layers can also be observed in some of the tube sections (Fig. 14 F), suggesting that they were originally organic in composition. A subset of tubes exhibit diffuse (poorly preserved?) tube walls (Fig. 14 G).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
‘ Sassenfjorden area tubes’ (Fig. 14) 2011 ‘ vestimentiferan’ worm tubes Hammer et al. 21, fig. 5 d. 2012 worm tubes Hryniewicz, Hammer et al. 118, fig. 5 a.
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Remarks. Non-serpulid, originally organic-walled tubes from the Sassenfjorden area were suggested to have been made by siboglinids (Hammer et al. 2011; Hryniewicz et al. 2015). However, the tubes examined do not clearly group with the tubes of modern annelid families included in cladistic and cluster analyses (Figs 22, 24). The tube sections with thick, neatly multi-layered walls that were observed within this study were possibly made by vestimentiferans, in which this tube structure is widely observed. However, the broad morphology of this tube is presently unknown, and tubes from this deposit in general warrant further investigation as several different tube types are present. Hence, these tubes are broadly ascribed to the annelids.
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Material. Svalbard 2007 - 03, long tube with yellowish wall. PMO 2009 - 01, single tube with dark black wall. PMO 2009 - 03: single tube with longitudinal wrinkles. 171.002 D, 170.996, 171.027, selection of thin sections of different tubes. Donated by K. Hryniewicz. Occurrence. Sassenfjorden area, Svalbard. Seep carbonates in shale and shale and siltstone, Slottsmøya Member, upper Agardhfjellet Formation, Volgian – Ryazanian (latest Jurassic – earliest Cretaceous) (Hammer et al. 2011; Hryniewicz et al. 2012, 2015; Vinn et al. 2014).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Description. Carbonate tubes mostly straight and exhibiting a wide range of diameters, from 1.0 to 7.9 mm, preserved in clusters mostly of similar-sized tubes (Fig. 1 A, B). In some clusters, tubes are preserved in the same orientation (Fig. 1 B). The tubes are non-branching, large-diameter fragments taper somewhat (Fig. 1 A), and some tube walls appear to be touching others (Fig. 1 B, F). Tube walls are mostly smooth (Fig. 1 C); however, one tube exhibits small round textures on its surface (Fig. 1 D) while another small-diameter tube bears fine, long, continuous longitudinal wrinkles (Fig. 1 B). Tube walls appear to have been originally fibrous as in places torn fibres are preserved (Fig. 1 E), and some of the tubes also seem to have been originally flexible due to the occurrence of irregular tube cross-sections (Fig. 1 F). The tubes show pronounced organic content (Fig. 1 G; Supplementary File 1, Table S 9). The tubes also appear originally to have been multi-layered (Fig. 1 E, G, H), with delamination occurring between some layers (Fig. 1 H). Some tube sections show well-consolidated lamination that is many layers thick (Fig. 1 G, H).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
‘ Rocky Knob tubes’ (Fig. 1) 2008 worm tubes Campbell, Francis, Collins, Gregory, Nelson, Greinert, & Aharon: 90, fig. 4 b, c. 2010 worm tubes Saether, Little, & Campbell: 510, fig. 3 c. 2011? Siboglinidae Saether: 73, fig. 5.1 e – i.
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Remarks. Tubes from Rocky Knob have previously been tentatively ascribed to siboglinids (Saether 2011). However, cluster and cladistic analyses (Figs 22, 24) failed to place these tubes among the siboglinids or any other annelid families included in the analyses. Noting their similarity to vestimentiferan tubes, we therefore assign these tubes to the annelids only, as more information would be required to assign them to siboglinids. The abundance of these tubes at this ancient seep, large diameter range, generally smooth organic tube walls, and the thick, neatly multi-layered tube wall appearance in some of the specimens do suggest a vestimentiferan affinity. The round structures (Fig. 1 D) present on the surface of a large-diameter tube may constitute the circular bases of aragonite botryoids (Fig. 1 F).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps
Material. RK- 5, block of many large-diameter tubes, mostly in the same orientation. RK- 15 B- 6, block of small-diameter tubes mostly in the same orientation. RNT 1, many similar-sized tubes, mostly in the same orientation. RNT 2, dense aggregation of small-diameter tubes in a range of orientations. 12 - RK, small and larger diameter tubes, mostly in the same orientation. Donated by K. A. Campbell and collected by C. T. S. Little. Occurrence. Rocky Knob, northern Hawke’s Bay area, east coast of North Island, New Zealand (~ 38 º 19 ’ S, 177 º 56 ’ E). Seep carbonates occurring as isolated lenses in mudstone, Bexhaven Limestone Formation, Tolaga Group, Middle Miocene (Campbell et al. 2008; Saether et al. 2010; Saether 2011).
Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

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REGIONS

Geographic Distribution(4)

DK
not evaluated
NO
SE
Vermont-US(US)

DATA

Occurrence Datasets

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Common names used for this species across different languages and regions. Available in 13 languages and 8 countries. 6 preferred.

NOlađasmáđutsmeNOleddmakkarnnoNOleddormernobSEringmaskarswenldringwormennld+53 more

Vernacular (common) names are the everyday names used for a species in different languages and regions. A single species may have dozens of common names worldwide. This taxon has names in 13 languages. 6 names preferred.

porAnelídeo
por
Source: Integrated Taxonomic Information System (ITIS)Source taxon #101688009
engAnnelids
eng
Source: Martha's Vineyard species checklistSource taxon #206230271
engAnnelids
eng
Source: Checklist of Vermont SpeciesSource taxon #160796896
FRAnnélides, Vers annelés
fraFRfra
DKLedorme
danDK
Source: National Checklist of all species occurring in DenmarkSource taxon #307075324
USSegmented Worms
engUS
Source: Martha's Vineyard species checklistSource taxon #206230271
USSegmented Worms
engUS
Source: Checklist of Vermont SpeciesSource taxon #160796896
USWorm
engUS
Source: Checklist of Vermont SpeciesSource taxon #160796896
USWorm
engUS
Source: Martha's Vineyard species checklistSource taxon #206230271
engannelids
eng
Source: Integrated Taxonomic Information System (ITIS)Source taxon #101688009
fraannélides
fra
Source: Integrated Taxonomic Information System (ITIS)Source taxon #101688009
porminhoca
por
Source: Integrated Taxonomic Information System (ITIS)Source taxon #101688009
FInivelmadot
finFI
Source: The FinBIF checklist of Finnish speciesSource taxon #257956352
sweringmaskar
swe
Source: AnnelidaSource taxon #114227480
BEringwormen
nldBE
Source: Belgian Species ListSource taxon #100382408
porsanguessuga
por
Source: Integrated Taxonomic Information System (ITIS)Source taxon #101688009
GBsegmented worms
engGBeng
engsegmented worms
eng
Source: AnnelidaSource taxon #114227480
engworm
eng
Source: The Paleobiology DatabaseSource taxon #121280274
engworm
eng
Source: The Paleobiology DatabaseSource taxon #137398535
ukrКільчасті черви
ukr
Source: AnnelidaSource taxon #114227480
NOlađasmáđut
smepreferredNO
NOleddmakkar
nnopreferredNO
NOleddormer
nobpreferredNO
SEringmaskar
swepreferredSE
Source: Dyntaxa. Svensk taxonomisk databasSource taxon #159988248
nldringwormen
nldpreferred
nldringwormen
nldpreferred
Source: World Register of Marine SpeciesSource taxon #154946062
deuAnneliden
deu
deuAnneliden
deu
Source: World Register of Marine SpeciesSource taxon #154946062
engAnnelids
eng
Source: United Kingdom Species Inventory (UKSI)Source taxon #180161840
deuBorstenfüßer
deu
Source: World Register of Marine SpeciesSource taxon #154946062
deuBorstenfüßer
deu
engEuropean Sea Mouse
eng
Source: Martha's Vineyard species checklistSource taxon #206230271
engEuropean Sea Mouse
eng
Source: Checklist of Vermont SpeciesSource taxon #160796896
engEuropean sea mouse
eng
Source: World Register of Marine SpeciesSource taxon #154946062
engEuropean sea mouse
eng
deuGliederwürmer
deu
Source: World Register of Marine SpeciesSource taxon #154946062
deuGliederwürmer
deu
deuRingelwürmer
deu
deuRingelwürmer
deu
Source: World Register of Marine SpeciesSource taxon #154946062
engWorm
eng
Source: United Kingdom Species Inventory (UKSI)Source taxon #180161840
USWorms
engUS
Source: Checklist of Vermont SpeciesSource taxon #160796896
engWorms
eng
Source: United Kingdom Species Inventory (UKSI)Source taxon #180161840
USWorms
engUS
Source: Martha's Vineyard species checklistSource taxon #206230271
engWorms
eng
Source: United Kingdom Species Inventory (UKSI)Source taxon #180161840
engannelids
eng
Source: World Register of Marine SpeciesSource taxon #154946062
engannelids
eng
nldgelede wormen
nld
Source: World Register of Marine SpeciesSource taxon #154946062
nldgelede wormen
nld
NOleddormar
nobNO
sweringmaskar
swe
sweringmaskar
swe
Source: World Register of Marine SpeciesSource taxon #154946062
engsegmented worms
eng
Source: World Register of Marine SpeciesSource taxon #154946062
engsegmented worms
eng
ukrКільчасті черви
ukr
Source: World Register of Marine SpeciesSource taxon #154946062
ukrКільчасті черви
ukr
jpn環形動物門
jpn
Source: World Register of Marine SpeciesSource taxon #154946062
jpn環形動物門
jpn

CLASSIFICATION

Taxonomic Classification Tree

AnimaliaAnnelida

RELATED

Related Name Usages(20)

Matching names from other GBIF-indexed checklists and datasets.

MULTIMEDIA

Media Files(9)

Figure 17. ‘Sibay tubes’, NHMUK VF71, Devonian, Sibay, Russia. A, hand specimen showing cluster of tubes in various orientations. B, detail of tube wall showing smooth appearance. C, detail of the walls of three adjacent tubes in transverse section; walls appear thick and multi-layered. D, detail of framboidal pyrite preserving tube walls. Scale bars: A = 3 mm; B = 1 mm; C = 500 µm; D = 10 µm.

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

Figure 22. Strict consensus cladogram of the three most parsimonious trees of tubes built by a total of 43 modern annelid taxa (best score = 14.344, consistency index = 0.308, retention index = 0.629). The analysis was based on the 48 mostly morphological tube characters and was performed using implied character weighting (k = 3). Numbers on nodes represent groups present/contradicted support values. Symbols/colours indicate taxonomic affinities.

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

Figure 24. Fourier transform infrared (FTIR) spectroscopy spectra of the organic tubes of vent and seep annelids. Spectra are offset on the absorbance axis, and key spectral absorbance peaks are labelled with the types of chemical bonds they represent: -NH, nitrogenhydrogen; -CH, carbon-hydrogen; -OH, oxygen-hydrogen. The regions of the tube analysed are as follows: Tevnia jerichonana (anterior, inner tube wall); Zenkevitchiana longissimi (middle, outer tube wall); Lamellibrachia anaximandri (posterior, outer tube wall); Sclerolinum contortum (anterior, outer tube wall); Alvinella sp. (middle); Spiochaetopterus izuensis (middle, outer tube wall).

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

Figure 14. ‘Sassenfjorden area tubes’, Volgian–Ryazanian, Svalbard. A–C, hand specimens of tubes; A, Svalbard 2007-03, long tube with poorly preserved walls; B, PMO 2009-01, smooth-walled tube possibly with a small collar; C, PMO 2009-03, tube with possible longitudinal wrinkles. D, E, 171.002D, near-transverse sections of tubes with thick, neatly-multi-layered walls. F, 170.996, detail from transverse section of a tube where the tube exhibits curving layers that have separated. G, 171.027, tube with poorly preserved walls. Scale bars: A = 10 mm; B = 2 mm; C = 5 mm; D, E = 300 µm; F = 100 µm; G = 200 µm.

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

Figure 22. Strict consensus cladogram of the three most parsimonious trees of tubes built by a total of 43 modern annelid taxa (best score = 14.344, consistency index = 0.308, retention index = 0.629). The analysis was based on the 48 mostly morphological tube characters and was performed using implied character weighting (k = 3). Numbers on nodes represent groups present/contradicted support values. Symbols/colours indicate taxonomic affinities.

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

Figure 24. Fourier transform infrared (FTIR) spectroscopy spectra of the organic tubes of vent and seep annelids. Spectra are offset on the absorbance axis, and key spectral absorbance peaks are labelled with the types of chemical bonds they represent: -NH, nitrogenhydrogen; -CH, carbon-hydrogen; -OH, oxygen-hydrogen. The regions of the tube analysed are as follows: Tevnia jerichonana (anterior, inner tube wall); Zenkevitchiana longissimi (middle, outer tube wall); Lamellibrachia anaximandri (posterior, outer tube wall); Sclerolinum contortum (anterior, outer tube wall); Alvinella sp. (middle); Spiochaetopterus izuensis (middle, outer tube wall).

Imageimage/png© Georgieva, Magdalena N.;Little, Crispin T. S.;Watson, Jonathan S.;Sephton, Mark A.;Ball, Alexander D.;Glover, Adrian G.Identification of fossil worm tubes from Phanerozoic hydrothermal vents and cold seeps

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CITATIONS

References(26)

  • 1

    Brusca, Richard C., and Gary J. Brusca, 1990: null. Invertebrates. xiii + 992.

    Integrated Taxonomic Information System (ITIS)
  • 2

    Glasby, Christopher J.; Biriukova, Olga; Martin, Patrick; Dyne, Geoffrey R.; Utevsky, Serge; Wilson, Robin S. (2025). ANNiKEY Linear – diagnoses, descriptions, and a single-access identification key to Annelida family-level taxa. <em>ZooKeys.</em> 1247: 217-403.

    identification resourceWorld Register of Marine SpeciesDOI: 10.3897/zookeys.1247.137606
  • 3

    Glasby, Christopher J.; Biriukova, Olga; Martin, Patrick; Dyne, Geoffrey R.; Utevsky, Serge; Wilson, Robin S. (2025). ANNiKEY Linear – diagnoses, descriptions, and a single-access identification key to Annelida family-level taxa. <em>ZooKeys.</em> 1247: 217-403.

    identification resourceWRiMSDOI: 10.3897/zookeys.1247.137606
  • 4

    Gärdenfors, Hall, Hallingbäck, Hansson & Hedström (2003) Djur, svampar och växter i Sverige 2003. Förteckning över antal arter per familj.

    Dyntaxa. Svensk taxonomisk databas
  • 5

    Hayward, P.J. & J.S. Ryland (Eds.). (1990). The marine fauna of the British Isles and North-West Europe: 1. Introduction and protozoans to arthropods. <em>Clarendon Press: Oxford, UK.</em> 627 pp.

    additional sourceWorld Register of Marine Species
  • Source Information

    GBIF Backbone Taxonomy

    GBIF Backbone Taxonomy

    checklist

    The GBIF Backbone Taxonomy is a single, synthetic management classification with the goal of covering all names GBIF is dealing with. It's the taxonomic backbone that allows GBIF to integrate name based information from different resources, no matter if these are occurrence datasets, species pages, names from nomenclators or external sources like EOL, Genbank or IUCN. This backbone allows taxonomic search, browse and reporting operations across all those resources in a consistent way and to provide means to crosswalk names from one source to another.

    It is updated regulary through an automated process in which the Catalogue of Life acts as a starting point also providing the complete higher classification above families. Additional scientific names only found in other authoritative nomenclatural and taxonomic datasets are then merged into the tree, thus extending the original catalogue and broadening the backbones name coverage. The GBIF Backbone taxonomy also includes identifiers for Operational Taxonomic Units (OTUs) drawn from the barcoding resources iBOL and UNITE.

    International Barcode of Life project (iBOL), Barcode Index Numbers (BINs). BINs are connected to a taxon name and its classification by taking into account all names applied to the BIN and picking names with at least 80% consensus. If there is no consensus of name at the species level, the selection process is repeated moving up the major Linnaean ranks until consensus is achieved.

    UNITE - Unified system for the DNA based fungal species, Species Hypotheses (SHs). SHs are connected to a taxon name and its classification based on the determination of the RefS (reference sequence) if present or the RepS (representative sequence). In the latter case, if there is no match in the UNITE taxonomy, the lowest rank with 100% consensus within the SH will be used.

    The GBIF Backbone Taxonomy is available for download at https://hosted-datasets.gbif.org/datasets/backbone/ in different formats together with an archive of all previous versions.

    The following 105 sources have been used to assemble the GBIF backbone with number of names given in brackets:

    • Catalogue of Life Checklist - 4766428 names
    • International Barcode of Life project (iBOL) Barcode Index Numbers (BINs) - 635951 names
    • UNITE - Unified system for the DNA based fungal species linked to the classification - 611208 names
    • The Paleobiology Database - 212054 names
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    • Plazi.org taxonomic treatments database - 61346 names
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    • International Plant Names Index - 52329 names
    • Fauna Europaea - 45077 names
    • The National Checklist of Taiwan (Catalogue of Life in Taiwan, TaiCoL) - 36193 names
    • Dyntaxa. Svensk taxonomisk databas - 35892 names
    • The Plant List with literature - 32692 names
    • United Kingdom Species Inventory (UKSI) - 29643 names
    • Artsnavnebasen - 29208 names
    • The IUCN Red List of Threatened Species - 21221 names
    • Afromoths, online database of Afrotropical moth species (Lepidoptera) - 13961 names
    • Brazilian Flora 2020 project - Projeto Flora do Brasil 2020 - 13829 names
    • Prokaryotic Nomenclature Up-to-Date (PNU) - 10079 names
    • Checklist Dutch Species Register - Nederlands Soortenregister - 8814 names
    • ICTV Master Species List (MSL) - 7852 names
    • Cockroach Species File - 6020 names
    • GRIN Taxonomy - 5882 names
    • Taxon list of fungi and fungal-like organisms from Germany compiled by the DGfM - 4570 names
    • Catalogue of Afrotropical Bees - 3623 names
    • Catalogue of Tenebrionidae (Coleoptera) of North America - 3327 names
    • Checklist of Beetles (Coleoptera) of Canada and Alaska. Second Edition. - 3312 names
    • Systema Dipterorum - 2850 names
    • Catalogue of the Pterophoroidea of the World - 2807 names
    • The Clements Checklist - 2675 names
    • Taxon list of Hymenoptera from Germany compiled in the context of the GBOL project - 2496 names
    • IOC World Bird List, v13.2 - 2366 names
    • Official Lists and Indexes of Names in Zoology - 2310 names
    • National checklist of all species occurring in Denmark - 1922 names
    • Myriatrix - 1876 names
    • Database of Vascular Plants of Canada (VASCAN) - 1822 names
    • Taxon list of vascular plants from Bavaria, Germany compiled in the context of the BFL project - 1771 names
    • Orthoptera Species File - 1742 names
    • A list of the terrestrial fungi, flora and fauna of Madeira and Selvagens archipelagos - 1602 names
    • Aphid Species File - 1565 names
    • World Spider Catalog - 1561 names
    • Taxon list of Jurassic Pisces of the Tethys Palaeo-Environment compiled at the SNSB-JME - 1270 names
    • Backbone Family Classification Patch - 1143 names
    • GBIF Algae Classification - 1100 names
    • International Cichorieae Network (ICN): Cichorieae Portal - 975 names
    • Psocodea Species File - 803 names
    • New Zealand Marine Macroalgae Species Checklist - 787 names
    • Annotated checklist of endemic species from the Western Balkans - 754 names
    • Taxon list of animals with German names (worldwide) compiled at the SMNS - 503 names
    • Catalogue of the Alucitoidea of the World - 472 names
    • Lygaeoidea Species File - 462 names
    • Catálogo de Plantas y Líquenes de Colombia - 422 names
    • GBIF Backbone Patch - 317 names
    • Phasmida Species File - 259 names
    • Cortinariaceae fetched from the Index Fungorum API - 234 names
    • Coreoidea Species File - 233 names
    • GTDB supplement - 139 names
    • Mantodea Species File - 119 names
    • Endemic species in Taiwan - 93 names
    • Taxon list of Araneae from Germany compiled in the context of the GBOL project - 88 names
    • Species of Hominidae - 78 names
    • Taxon list of Sternorrhyncha from Germany compiled in the context of the GBOL project - 77 names
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    • Catalogue of the type specimens of Cosmopterigidae (Lepidoptera: Gelechioidea) from research collections of the Zoological Institute, Russian Academy of Sciences - 47 names
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    • Taxon list of Trichoptera from Germany compiled in the context of the GBOL project - 34 names
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    • Range and Regularities in the Distribution of Earthworms of the Earthworms of the USSR Fauna. Perel, 1979 - 32 names
    • Taxon list of Diplura from Germany compiled in the context of the GBOL project - 30 names
    • Lista de referencia de especies de aves de Colombia - 2022 - 24 names
    • Taxon list of Auchenorrhyncha from Germany compiled in the context of the GBOL project - 20 names
    • Catalogue of the type specimens of Polycestinae (Coleoptera: Buprestidae) from research collections of the Zoological Institute, Russian Academy of Sciences - 19 names
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    • Taxon list of Microcoryphia (Archaeognatha) from Germany compiled in the context of the GBOL project - 15 names
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    • Taxon list of liverworts from Germany compiled in the context of the GBOL project - 9 names
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    • Taxon list of Pisces and Cyclostoma from Germany compiled in the context of the GBOL project - 6 names
    • Taxon list of Pteridophyta from Germany compiled in the context of the GBOL project - 6 names
    • Taxon list of Siphonaptera from Germany compiled in the context of the GBOL project - 5 names
    • The Earthworms of the Fauna of Russia. Perel, 1997 - 5 names
    • Taxon list of Zygentoma from Germany compiled in the context of the GBOL project - 4 names
    • Asiloid Flies: new taxa of Diptera: Apioceridae, Asilidae, and Mydidae - 3 names
    • Taxon list of Protura from Germany compiled in the context of the GBOL project - 3 names
    • Taxon list of hornworts from Germany compiled in the context of the GBOL project - 2 names
    • Chrysididae Species File - 1 names
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    • Taxon list of Diplopoda from Germany in the context of the GBOL project - 1 names
    • Taxon list of Orthoptera (Grashoppers) from Germany compiled at the SNSB - 1 names
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    GBIF Secretariat (2023). GBIF Backbone Taxonomy. Checklist dataset https://doi.org/10.15468/39omei accessed via GBIF.org on 2026-06-14.

    CC BYPublished 8/28/2023View dataset
    GBIF Usage Key
    42
    Dataset Key
    d7dddbf4-2cf0-4f39-9b2a-bb099caae36c
    Origin
    source
    Backbone Key
    42
    Taxon ID
    gbif:42
    Last Crawled
    8/22/2023
    Last Interpreted
    8/22/2023