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Host-encoded ETP2 is involved in recruiting the dynamin-like protein ETP9 to the endosymbiont division site in trypanosomatid Angomonas deanei
by
Cadena, Lawrence Rudy
, Ehret, Georg
, Maurya, Anay K.
, Nowack, Eva C. M.
in
Angomonas deanei
/ Bacteria
/ Bacterial Endosymbionts
/ Bacterial Symbiosis
/ Bacterial-Eukaryotic Interactions
/ Cell cycle
/ cell cycle synchronization
/ Cell Division
/ Cloning
/ Co-evolution and Symbiosis
/ Cytosol
/ Dynamin
/ Dynamins - genetics
/ Dynamins - metabolism
/ Endosymbionts
/ Endosymbiosis
/ Euglenozoa
/ Eukaryotic Microbiology
/ evolution
/ Evolutionary Processes
/ FtsZ
/ Genetic transformation
/ Genomes
/ Host-Associated Microbiota
/ Host-Microbial Interactions
/ Localization
/ Microbial Ecology and Evolution
/ Microscopy
/ Mitochondria
/ Mitochondrial DNA
/ Molecular modelling
/ Mutualistic Interactions
/ Organelles
/ organellogenesis
/ Phenotypes
/ Plastids
/ Proteins
/ Protist Diversity
/ Protozoan Proteins - genetics
/ Protozoan Proteins - metabolism
/ Research Article
/ Symbiosis
/ Symbiosis and Host Interactions
/ Symbiosis and Mutualism
/ Trypanosomatina - genetics
/ Trypanosomatina - microbiology
/ Trypanosomatina - physiology
2025
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Host-encoded ETP2 is involved in recruiting the dynamin-like protein ETP9 to the endosymbiont division site in trypanosomatid Angomonas deanei
by
Cadena, Lawrence Rudy
, Ehret, Georg
, Maurya, Anay K.
, Nowack, Eva C. M.
in
Angomonas deanei
/ Bacteria
/ Bacterial Endosymbionts
/ Bacterial Symbiosis
/ Bacterial-Eukaryotic Interactions
/ Cell cycle
/ cell cycle synchronization
/ Cell Division
/ Cloning
/ Co-evolution and Symbiosis
/ Cytosol
/ Dynamin
/ Dynamins - genetics
/ Dynamins - metabolism
/ Endosymbionts
/ Endosymbiosis
/ Euglenozoa
/ Eukaryotic Microbiology
/ evolution
/ Evolutionary Processes
/ FtsZ
/ Genetic transformation
/ Genomes
/ Host-Associated Microbiota
/ Host-Microbial Interactions
/ Localization
/ Microbial Ecology and Evolution
/ Microscopy
/ Mitochondria
/ Mitochondrial DNA
/ Molecular modelling
/ Mutualistic Interactions
/ Organelles
/ organellogenesis
/ Phenotypes
/ Plastids
/ Proteins
/ Protist Diversity
/ Protozoan Proteins - genetics
/ Protozoan Proteins - metabolism
/ Research Article
/ Symbiosis
/ Symbiosis and Host Interactions
/ Symbiosis and Mutualism
/ Trypanosomatina - genetics
/ Trypanosomatina - microbiology
/ Trypanosomatina - physiology
2025
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Host-encoded ETP2 is involved in recruiting the dynamin-like protein ETP9 to the endosymbiont division site in trypanosomatid Angomonas deanei
by
Cadena, Lawrence Rudy
, Ehret, Georg
, Maurya, Anay K.
, Nowack, Eva C. M.
in
Angomonas deanei
/ Bacteria
/ Bacterial Endosymbionts
/ Bacterial Symbiosis
/ Bacterial-Eukaryotic Interactions
/ Cell cycle
/ cell cycle synchronization
/ Cell Division
/ Cloning
/ Co-evolution and Symbiosis
/ Cytosol
/ Dynamin
/ Dynamins - genetics
/ Dynamins - metabolism
/ Endosymbionts
/ Endosymbiosis
/ Euglenozoa
/ Eukaryotic Microbiology
/ evolution
/ Evolutionary Processes
/ FtsZ
/ Genetic transformation
/ Genomes
/ Host-Associated Microbiota
/ Host-Microbial Interactions
/ Localization
/ Microbial Ecology and Evolution
/ Microscopy
/ Mitochondria
/ Mitochondrial DNA
/ Molecular modelling
/ Mutualistic Interactions
/ Organelles
/ organellogenesis
/ Phenotypes
/ Plastids
/ Proteins
/ Protist Diversity
/ Protozoan Proteins - genetics
/ Protozoan Proteins - metabolism
/ Research Article
/ Symbiosis
/ Symbiosis and Host Interactions
/ Symbiosis and Mutualism
/ Trypanosomatina - genetics
/ Trypanosomatina - microbiology
/ Trypanosomatina - physiology
2025
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Host-encoded ETP2 is involved in recruiting the dynamin-like protein ETP9 to the endosymbiont division site in trypanosomatid Angomonas deanei
Journal Article
Host-encoded ETP2 is involved in recruiting the dynamin-like protein ETP9 to the endosymbiont division site in trypanosomatid Angomonas deanei
2025
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Overview
The ancient uptake and transformation of free-living bacteria into eukaryotic organelles involved extensive structural, physiological, and genetic changes. More recently established endosymbioses offer a unique opportunity to observe intermediate stages in the complex process by which a prokaryote becomes genetically integrated into a eukaryotic cell. Hence, studying the molecular mechanisms that govern host-endosymbiont interactions holds the potential for uncovering the scenarios and molecular processes behind organelle formation. The trypanosomatid Angomonas deanei has been recently reported to manifest nuclear control over its endosymbiont’s division. In this study, we identified and characterized a new nucleus-encoded component of the endosymbiont division machinery. This study further supports that a novel intermediate between endosymbiont and organelle evolved in A. deanei and provides new leverage to entangle the evolution of its fascinating nucleus-controlled endosymbiont division machinery.
Publisher
American Society for Microbiology,American Society for Microbiology (ASM)
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