Standard

To the Origin of Fungi: Analysis of MFS Transporters of First Assembled Aphelidium Genome Highlights Dissimilarity of Osmotrophic Abilities between Aphelida and Fungi. / Pozdnyakov, Igor R.; Potapenko, Evgeniy V.; Nassonova, Elena S.; Babenko, Vladislav V.; Boldyreva, Daria I.; Tcvetkova, Victoria S.; Karpov, Sergey A.

In: Journal of Fungi, Vol. 9, No. 10, 1021, 16.10.2023.

Research output: Contribution to journalArticlepeer-review

Harvard

APA

Vancouver

Author

BibTeX

@article{c83316c9d4ce4af7a0fb81dc09d1c75c,
title = "To the Origin of Fungi: Analysis of MFS Transporters of First Assembled Aphelidium Genome Highlights Dissimilarity of Osmotrophic Abilities between Aphelida and Fungi",
abstract = "Aphelids are a holomycotan group, represented exclusively by parasitoids infecting algae. They form a sister lineage to Fungi in the phylogenetic tree and represent a key group for reconstruction of the evolution of Holomycota and for analysis of the origin of Fungi. The newly assembled genome of Aphelidium insullamus (Holomycota, Aphelida) with a total length of 18.9 Mb, 7820 protein-coding genes and a GC percentage of 52.05% was obtained by a hybrid assembly based on Oxford Nanopore long reads and Illumina paired reads. In order to trace the origin and the evolution of fungal osmotrophy and its presence or absence in Aphelida, we analyzed the set of main fungal transmembrane transporters, which are proteins of the Major Facilitator superfamily (MFS), in the predicted aphelid proteomes. This search has shown an absence of a specific fungal protein family Drug:H + antiporters-2 (DAH-2) and specific fungal orthologs of the sugar porters (SP) family, and the presence of common opisthokont's orthologs of the SP family in four aphelid genomes. The repertoire of SP orthologs in aphelids turned out to be less diverse than in free-living opisthokonts, and one of the most limited among opisthokonts. We argue that aphelids do not show signs of similarity with fungi in terms of their osmotrophic abilities, despite the sister relationships of these groups. Moreover, the osmotrophic abilities of aphelids appear to be reduced in comparison with free-living unicellular opisthokonts. Therefore, we assume that the evolution of fungi-specific traits began after the separation of fungal and aphelid lineages, and there are no essential reasons to consider aphelids as a prototype of the fungal ancestor. ",
keywords = "Aphelida; fungi; Holomycota; osmotrophy; MFS proteins; evolution; genome; sugar porters, Aphelida, Holomycota, MFS proteins, evolution, fungi, genome, osmotrophy, sugar porters",
author = "Pozdnyakov, {Igor R.} and Potapenko, {Evgeniy V.} and Nassonova, {Elena S.} and Babenko, {Vladislav V.} and Boldyreva, {Daria I.} and Tcvetkova, {Victoria S.} and Karpov, {Sergey A.}",
year = "2023",
month = oct,
day = "16",
doi = "https://doi.org/10.3390/jof9101021",
language = "English",
volume = "9",
journal = "Journal of Fungi",
issn = "2309-608X",
publisher = "MDPI AG",
number = "10",

}

RIS

TY - JOUR

T1 - To the Origin of Fungi: Analysis of MFS Transporters of First Assembled Aphelidium Genome Highlights Dissimilarity of Osmotrophic Abilities between Aphelida and Fungi

AU - Pozdnyakov, Igor R.

AU - Potapenko, Evgeniy V.

AU - Nassonova, Elena S.

AU - Babenko, Vladislav V.

AU - Boldyreva, Daria I.

AU - Tcvetkova, Victoria S.

AU - Karpov, Sergey A.

PY - 2023/10/16

Y1 - 2023/10/16

N2 - Aphelids are a holomycotan group, represented exclusively by parasitoids infecting algae. They form a sister lineage to Fungi in the phylogenetic tree and represent a key group for reconstruction of the evolution of Holomycota and for analysis of the origin of Fungi. The newly assembled genome of Aphelidium insullamus (Holomycota, Aphelida) with a total length of 18.9 Mb, 7820 protein-coding genes and a GC percentage of 52.05% was obtained by a hybrid assembly based on Oxford Nanopore long reads and Illumina paired reads. In order to trace the origin and the evolution of fungal osmotrophy and its presence or absence in Aphelida, we analyzed the set of main fungal transmembrane transporters, which are proteins of the Major Facilitator superfamily (MFS), in the predicted aphelid proteomes. This search has shown an absence of a specific fungal protein family Drug:H + antiporters-2 (DAH-2) and specific fungal orthologs of the sugar porters (SP) family, and the presence of common opisthokont's orthologs of the SP family in four aphelid genomes. The repertoire of SP orthologs in aphelids turned out to be less diverse than in free-living opisthokonts, and one of the most limited among opisthokonts. We argue that aphelids do not show signs of similarity with fungi in terms of their osmotrophic abilities, despite the sister relationships of these groups. Moreover, the osmotrophic abilities of aphelids appear to be reduced in comparison with free-living unicellular opisthokonts. Therefore, we assume that the evolution of fungi-specific traits began after the separation of fungal and aphelid lineages, and there are no essential reasons to consider aphelids as a prototype of the fungal ancestor.

AB - Aphelids are a holomycotan group, represented exclusively by parasitoids infecting algae. They form a sister lineage to Fungi in the phylogenetic tree and represent a key group for reconstruction of the evolution of Holomycota and for analysis of the origin of Fungi. The newly assembled genome of Aphelidium insullamus (Holomycota, Aphelida) with a total length of 18.9 Mb, 7820 protein-coding genes and a GC percentage of 52.05% was obtained by a hybrid assembly based on Oxford Nanopore long reads and Illumina paired reads. In order to trace the origin and the evolution of fungal osmotrophy and its presence or absence in Aphelida, we analyzed the set of main fungal transmembrane transporters, which are proteins of the Major Facilitator superfamily (MFS), in the predicted aphelid proteomes. This search has shown an absence of a specific fungal protein family Drug:H + antiporters-2 (DAH-2) and specific fungal orthologs of the sugar porters (SP) family, and the presence of common opisthokont's orthologs of the SP family in four aphelid genomes. The repertoire of SP orthologs in aphelids turned out to be less diverse than in free-living opisthokonts, and one of the most limited among opisthokonts. We argue that aphelids do not show signs of similarity with fungi in terms of their osmotrophic abilities, despite the sister relationships of these groups. Moreover, the osmotrophic abilities of aphelids appear to be reduced in comparison with free-living unicellular opisthokonts. Therefore, we assume that the evolution of fungi-specific traits began after the separation of fungal and aphelid lineages, and there are no essential reasons to consider aphelids as a prototype of the fungal ancestor.

KW - Aphelida; fungi; Holomycota; osmotrophy; MFS proteins; evolution; genome; sugar porters

KW - Aphelida

KW - Holomycota

KW - MFS proteins

KW - evolution

KW - fungi

KW - genome

KW - osmotrophy

KW - sugar porters

UR - https://www.mendeley.com/catalogue/6e6d3a8c-ac61-3ab1-a0c8-5cf99940f4ce/

U2 - https://doi.org/10.3390/jof9101021

DO - https://doi.org/10.3390/jof9101021

M3 - Article

C2 - 37888277

VL - 9

JO - Journal of Fungi

JF - Journal of Fungi

SN - 2309-608X

IS - 10

M1 - 1021

ER -

ID: 114766935