Patterns of host adaptation in fly infecting Entomophthora species

Publikation: KonferencebidragKonferenceabstrakt til konferenceForskningfagfællebedømt

Standard

Patterns of host adaptation in fly infecting Entomophthora species. / de Fine Licht, Henrik Hjarvard; Jensen, Annette Bruun; Eilenberg, Jørgen.

2014. Abstract fra 2014 International congress on Invertebrate Pathology and Microbial Control, Mainz, Tyskland.

Publikation: KonferencebidragKonferenceabstrakt til konferenceForskningfagfællebedømt

Harvard

de Fine Licht, HH, Jensen, AB & Eilenberg, J 2014, 'Patterns of host adaptation in fly infecting Entomophthora species', 2014 International congress on Invertebrate Pathology and Microbial Control, Mainz, Tyskland, 03/08/2014 - 07/08/2014.

APA

de Fine Licht, H. H., Jensen, A. B., & Eilenberg, J. (2014). Patterns of host adaptation in fly infecting Entomophthora species. Abstract fra 2014 International congress on Invertebrate Pathology and Microbial Control, Mainz, Tyskland.

Vancouver

de Fine Licht HH, Jensen AB, Eilenberg J. Patterns of host adaptation in fly infecting Entomophthora species. 2014. Abstract fra 2014 International congress on Invertebrate Pathology and Microbial Control, Mainz, Tyskland.

Author

de Fine Licht, Henrik Hjarvard ; Jensen, Annette Bruun ; Eilenberg, Jørgen. / Patterns of host adaptation in fly infecting Entomophthora species. Abstract fra 2014 International congress on Invertebrate Pathology and Microbial Control, Mainz, Tyskland.1 s.

Bibtex

@conference{6869d8ba2488456e9f88c4d15c495c30,
title = "Patterns of host adaptation in fly infecting Entomophthora species",
abstract = "Insect pathogenic fungi (IPF) differ widely in their capability to infect different hosts. Some are generalists and will, given a sufficient number of infectious spores are present, infect almost any species of insect (e.g. Hypocrealean Metarhizium and Beauveria). Members of a different main IPF phylum Entomophthoromycota generally have more narrow host-ranges where some species for example only infect aphids or only locusts. Certain species (or strains) are even more host specific and are only known to infect a single or very few taxonomically related insect species under natural conditions (e.g. Entomophthora, Strongwellsea and Entomophaga). Species diversification of the obligate IPF within Entomophthoromycota thus seems to be primarily driven by co-evolutionary host adaptation to specific insect families, genera or species-complexes, but the underlying genetic factors of host adaptation in this fungal order are largely unknown and leave many unanswered questions. For example are the number of virulence factors increasing, or decreasing when fungal pathogens adapt to a narrow range of potential hosts? And, are host specialization based on many genetic changes with small effect or few with large effect? Here we examine closely related species within the Entomophthora muscae species complex: E. muscae s. str. infecting the common housefly Musca domestica and E. muscae s.l. strains infecting the cabbage fly Delia radicum. We use RNA-seq based comparative transcriptomics to unravel genetic differences and similarities in order to detect patterns of host-specific molecular adaptation.",
author = "{de Fine Licht}, {Henrik Hjarvard} and Jensen, {Annette Bruun} and J{\o}rgen Eilenberg",
year = "2014",
language = "English",
note = "null ; Conference date: 03-08-2014 Through 07-08-2014",

}

RIS

TY - ABST

T1 - Patterns of host adaptation in fly infecting Entomophthora species

AU - de Fine Licht, Henrik Hjarvard

AU - Jensen, Annette Bruun

AU - Eilenberg, Jørgen

N1 - Conference code: 47

PY - 2014

Y1 - 2014

N2 - Insect pathogenic fungi (IPF) differ widely in their capability to infect different hosts. Some are generalists and will, given a sufficient number of infectious spores are present, infect almost any species of insect (e.g. Hypocrealean Metarhizium and Beauveria). Members of a different main IPF phylum Entomophthoromycota generally have more narrow host-ranges where some species for example only infect aphids or only locusts. Certain species (or strains) are even more host specific and are only known to infect a single or very few taxonomically related insect species under natural conditions (e.g. Entomophthora, Strongwellsea and Entomophaga). Species diversification of the obligate IPF within Entomophthoromycota thus seems to be primarily driven by co-evolutionary host adaptation to specific insect families, genera or species-complexes, but the underlying genetic factors of host adaptation in this fungal order are largely unknown and leave many unanswered questions. For example are the number of virulence factors increasing, or decreasing when fungal pathogens adapt to a narrow range of potential hosts? And, are host specialization based on many genetic changes with small effect or few with large effect? Here we examine closely related species within the Entomophthora muscae species complex: E. muscae s. str. infecting the common housefly Musca domestica and E. muscae s.l. strains infecting the cabbage fly Delia radicum. We use RNA-seq based comparative transcriptomics to unravel genetic differences and similarities in order to detect patterns of host-specific molecular adaptation.

AB - Insect pathogenic fungi (IPF) differ widely in their capability to infect different hosts. Some are generalists and will, given a sufficient number of infectious spores are present, infect almost any species of insect (e.g. Hypocrealean Metarhizium and Beauveria). Members of a different main IPF phylum Entomophthoromycota generally have more narrow host-ranges where some species for example only infect aphids or only locusts. Certain species (or strains) are even more host specific and are only known to infect a single or very few taxonomically related insect species under natural conditions (e.g. Entomophthora, Strongwellsea and Entomophaga). Species diversification of the obligate IPF within Entomophthoromycota thus seems to be primarily driven by co-evolutionary host adaptation to specific insect families, genera or species-complexes, but the underlying genetic factors of host adaptation in this fungal order are largely unknown and leave many unanswered questions. For example are the number of virulence factors increasing, or decreasing when fungal pathogens adapt to a narrow range of potential hosts? And, are host specialization based on many genetic changes with small effect or few with large effect? Here we examine closely related species within the Entomophthora muscae species complex: E. muscae s. str. infecting the common housefly Musca domestica and E. muscae s.l. strains infecting the cabbage fly Delia radicum. We use RNA-seq based comparative transcriptomics to unravel genetic differences and similarities in order to detect patterns of host-specific molecular adaptation.

M3 - Conference abstract for conference

Y2 - 3 August 2014 through 7 August 2014

ER -

ID: 119880926