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Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa : Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation. / Паскерова, Гита Георгиевна; Миролюбова, Татьяна Сергеевна; Valigurová, A.; Janouškovec, Jan; Kováčiková, Magdaléna; Diakin, Andrei; Sokolova, Yu. Ya.; Mikhailov, K.V.; Aleoshin, V.V.; Simdyanov, T.G.

в: PeerJ, Том 9, e11912, 16.09.2021.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

Harvard

Паскерова, ГГ, Миролюбова, ТС, Valigurová, A, Janouškovec, J, Kováčiková, M, Diakin, A, Sokolova, YY, Mikhailov, KV, Aleoshin, VV & Simdyanov, TG 2021, 'Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa: Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation', PeerJ, Том. 9, e11912. https://doi.org/10.7717/peerj.11912

APA

Паскерова, Г. Г., Миролюбова, Т. С., Valigurová, A., Janouškovec, J., Kováčiková, M., Diakin, A., Sokolova, Y. Y., Mikhailov, K. V., Aleoshin, V. V., & Simdyanov, T. G. (2021). Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa: Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation. PeerJ, 9, [e11912]. https://doi.org/10.7717/peerj.11912

Vancouver

Author

Паскерова, Гита Георгиевна ; Миролюбова, Татьяна Сергеевна ; Valigurová, A. ; Janouškovec, Jan ; Kováčiková, Magdaléna ; Diakin, Andrei ; Sokolova, Yu. Ya. ; Mikhailov, K.V. ; Aleoshin, V.V. ; Simdyanov, T.G. / Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa : Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation. в: PeerJ. 2021 ; Том 9.

BibTeX

@article{07b8a619727747fe921c680bddded6e7,
title = "Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa: Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation",
abstract = "Background. Gregarines are a major group of apicomplexan parasites of invertebrates. The gregarine classification is largely incomplete because it relies primarily on light microscopy, while electron microscopy and molecular data in the group are fragmentary and often do not overlap. A key characteristic in gregarine taxonomy is the structure and function of their attachment organelles (AOs). AOs have been commonly classified as {"}mucrons{"}or {"}epimerites{"}based on their association with other cellular traits such as septation. An alternative proposal focused on the AOs structure, functional role, and developmental fate has recently restricted the terms ''mucron'' to archigregarines and {"}epimerite{"}to eugregarines. Methods. Light microscopy and scanning and transmission electron microscopy, molecular phylogenetic analyses of ribosomal RNA genes. Results. We obtained the first data on fine morphology of aseptate eugregarines Polyrhabdina pygospionis and Polyrhabdina cf. spionis, the type species. We demonstrate that their AOs differ from the mucron in archigregarines and represent an epimerite structurally resembling that in other eugregarines examined using electron microscopy. We then used the concatenated ribosomal operon DNA sequences (SSU, 5.8S, and LSU rDNA) of P. pygospionis to explore the phylogeny of eugregarines with a resolution superior to SSU rDNA alone. The obtained phylogenies show that the Polyrhabdina clade represents an independent, deep-branching family in the Ancoroidea clade within eugregarines. Combined, these results lend strong support to the hypothesis that the epimerite is a synapomorphic innovation of eugregarines. Based on these findings, we resurrect the family Polyrhabdinidae Kamm, 1922 and erect and diagnose the family Trollidiidae fam. n. within the superfamily Ancoroidea Simdyanov et al., 2017. Additionally, we re-describe the characteristics of P. pygospionis, emend the diagnoses of the genus Polyrhabdina, the family Polyrhabdinidae, and the superfamily Ancoroidea.",
keywords = "Environmental DNA sequences, Eugregarinida, Host-parasite relationships, Intestinal parasites, Marine gregarines, Phylogeny, SSU and LSU rDNA, Taxonomy, Ultrastructure, PHYLOGENY, REVISION, DICYSTID GREGARINES, FINE-STRUCTURE, MULTIPLE SEQUENCE ALIGNMENT, METCHNIKOVELLIDAE, N. GEN., DIVERSITY, GREGARINES APICOMPLEXA, WEB SERVER",
author = "Паскерова, {Гита Георгиевна} and Миролюбова, {Татьяна Сергеевна} and A. Valigurov{\'a} and Jan Janou{\v s}kovec and Magdal{\'e}na Kov{\'a}{\v c}ikov{\'a} and Andrei Diakin and Sokolova, {Yu. Ya.} and K.V. Mikhailov and V.V. Aleoshin and T.G. Simdyanov",
note = "Publisher Copyright: Copyright 2021 Paskerova et al.",
year = "2021",
month = sep,
day = "16",
doi = "10.7717/peerj.11912",
language = "English",
volume = "9",
journal = "PeerJ",
issn = "2167-8359",
publisher = "PeerJ",

}

RIS

TY - JOUR

T1 - Evidence from the resurrected family Polyrhabdinidae Kamm, 1922 (Apicomplexa

T2 - Gregarinomorpha) supports the epimerite, an attachment organelle, as a major eugregarine innovation

AU - Паскерова, Гита Георгиевна

AU - Миролюбова, Татьяна Сергеевна

AU - Valigurová, A.

AU - Janouškovec, Jan

AU - Kováčiková, Magdaléna

AU - Diakin, Andrei

AU - Sokolova, Yu. Ya.

AU - Mikhailov, K.V.

AU - Aleoshin, V.V.

AU - Simdyanov, T.G.

N1 - Publisher Copyright: Copyright 2021 Paskerova et al.

PY - 2021/9/16

Y1 - 2021/9/16

N2 - Background. Gregarines are a major group of apicomplexan parasites of invertebrates. The gregarine classification is largely incomplete because it relies primarily on light microscopy, while electron microscopy and molecular data in the group are fragmentary and often do not overlap. A key characteristic in gregarine taxonomy is the structure and function of their attachment organelles (AOs). AOs have been commonly classified as "mucrons"or "epimerites"based on their association with other cellular traits such as septation. An alternative proposal focused on the AOs structure, functional role, and developmental fate has recently restricted the terms ''mucron'' to archigregarines and "epimerite"to eugregarines. Methods. Light microscopy and scanning and transmission electron microscopy, molecular phylogenetic analyses of ribosomal RNA genes. Results. We obtained the first data on fine morphology of aseptate eugregarines Polyrhabdina pygospionis and Polyrhabdina cf. spionis, the type species. We demonstrate that their AOs differ from the mucron in archigregarines and represent an epimerite structurally resembling that in other eugregarines examined using electron microscopy. We then used the concatenated ribosomal operon DNA sequences (SSU, 5.8S, and LSU rDNA) of P. pygospionis to explore the phylogeny of eugregarines with a resolution superior to SSU rDNA alone. The obtained phylogenies show that the Polyrhabdina clade represents an independent, deep-branching family in the Ancoroidea clade within eugregarines. Combined, these results lend strong support to the hypothesis that the epimerite is a synapomorphic innovation of eugregarines. Based on these findings, we resurrect the family Polyrhabdinidae Kamm, 1922 and erect and diagnose the family Trollidiidae fam. n. within the superfamily Ancoroidea Simdyanov et al., 2017. Additionally, we re-describe the characteristics of P. pygospionis, emend the diagnoses of the genus Polyrhabdina, the family Polyrhabdinidae, and the superfamily Ancoroidea.

AB - Background. Gregarines are a major group of apicomplexan parasites of invertebrates. The gregarine classification is largely incomplete because it relies primarily on light microscopy, while electron microscopy and molecular data in the group are fragmentary and often do not overlap. A key characteristic in gregarine taxonomy is the structure and function of their attachment organelles (AOs). AOs have been commonly classified as "mucrons"or "epimerites"based on their association with other cellular traits such as septation. An alternative proposal focused on the AOs structure, functional role, and developmental fate has recently restricted the terms ''mucron'' to archigregarines and "epimerite"to eugregarines. Methods. Light microscopy and scanning and transmission electron microscopy, molecular phylogenetic analyses of ribosomal RNA genes. Results. We obtained the first data on fine morphology of aseptate eugregarines Polyrhabdina pygospionis and Polyrhabdina cf. spionis, the type species. We demonstrate that their AOs differ from the mucron in archigregarines and represent an epimerite structurally resembling that in other eugregarines examined using electron microscopy. We then used the concatenated ribosomal operon DNA sequences (SSU, 5.8S, and LSU rDNA) of P. pygospionis to explore the phylogeny of eugregarines with a resolution superior to SSU rDNA alone. The obtained phylogenies show that the Polyrhabdina clade represents an independent, deep-branching family in the Ancoroidea clade within eugregarines. Combined, these results lend strong support to the hypothesis that the epimerite is a synapomorphic innovation of eugregarines. Based on these findings, we resurrect the family Polyrhabdinidae Kamm, 1922 and erect and diagnose the family Trollidiidae fam. n. within the superfamily Ancoroidea Simdyanov et al., 2017. Additionally, we re-describe the characteristics of P. pygospionis, emend the diagnoses of the genus Polyrhabdina, the family Polyrhabdinidae, and the superfamily Ancoroidea.

KW - Environmental DNA sequences

KW - Eugregarinida

KW - Host-parasite relationships

KW - Intestinal parasites

KW - Marine gregarines

KW - Phylogeny

KW - SSU and LSU rDNA

KW - Taxonomy

KW - Ultrastructure

KW - PHYLOGENY

KW - REVISION

KW - DICYSTID GREGARINES

KW - FINE-STRUCTURE

KW - MULTIPLE SEQUENCE ALIGNMENT

KW - METCHNIKOVELLIDAE

KW - N. GEN.

KW - DIVERSITY

KW - GREGARINES APICOMPLEXA

KW - WEB SERVER

UR - http://www.scopus.com/inward/record.url?scp=85115611880&partnerID=8YFLogxK

UR - https://www.mendeley.com/catalogue/9409b99e-8316-3647-b322-7fd4a439f291/

U2 - 10.7717/peerj.11912

DO - 10.7717/peerj.11912

M3 - Article

C2 - 34616591

VL - 9

JO - PeerJ

JF - PeerJ

SN - 2167-8359

M1 - e11912

ER -

ID: 85107666