Genomes of nitrogen-fixing eukaryotes reveal an alternate path for organellogenesis.

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Main Authors: Frail, Sarah, Steele-Ogus, Melissa, Doenier, Jon, Moulin, Solène L Y, Braukmann, Tom, Xu, Shouling, Yeh, Ellen
Format: Artículo científico
Language:en
Published: Proceedings of the National Academy of Sciences of the United States of America 2025
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author Frail, Sarah
Steele-Ogus, Melissa
Doenier, Jon
Moulin, Solène L Y
Braukmann, Tom
Xu, Shouling
Yeh, Ellen
author_facet Frail, Sarah
Steele-Ogus, Melissa
Doenier, Jon
Moulin, Solène L Y
Braukmann, Tom
Xu, Shouling
Yeh, Ellen
Frail, Sarah
Steele-Ogus, Melissa
Doenier, Jon
Moulin, Solène L Y
Braukmann, Tom
Xu, Shouling
Yeh, Ellen
collection PubMed - marine biology
contents Genomes of nitrogen-fixing eukaryotes reveal an alternate path for organellogenesis. Frail, Sarah Steele-Ogus, Melissa Doenier, Jon Moulin, Solène L Y Braukmann, Tom Xu, Shouling Yeh, Ellen Biological Evolution Diatoms Genome, Plastid Multigene Family Nitrogen Fixation Organelle Biogenesis Origin of Life Proteome Symbiosis Transformation, Genetic Cyanobacteria Gene Transfer, Horizontal Endosymbiotic gene transfer (EGT) and import of host-encoded proteins have been considered hallmarks of organelles necessary for stable integration of two cells. However, newer endosymbiotic models have challenged the origin and timing of such genetic integration during organellogenesis. diatoms contain diazoplasts, obligate endosymbionts derived from cyanobacteria that are closely phylogenetically related to UCYN-A, a recently described nitrogen-fixing organelle. Diazoplasts function as permanent membrane compartments in hosts, but it is unknown if genetic integration has occurred. We report genomic analyses of two diatom species, freshwater and marine , which are highly divergent but share a common ancestor at the origin of the endosymbiosis
format Artículo científico
id pubmed_40794833
institution PubMed
language en
publishDate 2025
publisher Proceedings of the National Academy of Sciences of the United States of America
record_format pubmed
spellingShingle Genomes of nitrogen-fixing eukaryotes reveal an alternate path for organellogenesis.
Frail, Sarah
Steele-Ogus, Melissa
Doenier, Jon
Moulin, Solène L Y
Braukmann, Tom
Xu, Shouling
Yeh, Ellen
Biological Evolution
Diatoms
Genome, Plastid
Multigene Family
Nitrogen Fixation
Organelle Biogenesis
Origin of Life
Proteome
Symbiosis
Transformation, Genetic
Cyanobacteria
Gene Transfer, Horizontal
Genomes of nitrogen-fixing eukaryotes reveal an alternate path for organellogenesis. Frail, Sarah Steele-Ogus, Melissa Doenier, Jon Moulin, Solène L Y Braukmann, Tom Xu, Shouling Yeh, Ellen Biological Evolution Diatoms Genome, Plastid Multigene Family Nitrogen Fixation Organelle Biogenesis Origin of Life Proteome Symbiosis Transformation, Genetic Cyanobacteria Gene Transfer, Horizontal Endosymbiotic gene transfer (EGT) and import of host-encoded proteins have been considered hallmarks of organelles necessary for stable integration of two cells. However, newer endosymbiotic models have challenged the origin and timing of such genetic integration during organellogenesis. diatoms contain diazoplasts, obligate endosymbionts derived from cyanobacteria that are closely phylogenetically related to UCYN-A, a recently described nitrogen-fixing organelle. Diazoplasts function as permanent membrane compartments in hosts, but it is unknown if genetic integration has occurred. We report genomic analyses of two diatom species, freshwater and marine , which are highly divergent but share a common ancestor at the origin of the endosymbiosis
title Genomes of nitrogen-fixing eukaryotes reveal an alternate path for organellogenesis.
topic Biological Evolution
Diatoms
Genome, Plastid
Multigene Family
Nitrogen Fixation
Organelle Biogenesis
Origin of Life
Proteome
Symbiosis
Transformation, Genetic
Cyanobacteria
Gene Transfer, Horizontal
url https://pubmed.ncbi.nlm.nih.gov/40794833/