@ARTICLE{TreeBASE2Ref30045,
author = {Tim Goelen and Islam S Sobhy and Christophe Vanderaa and Felix W?ckers and Hans Rediers and Tom Wenseleers and Hans Jacquemyn and Bart Lievens},
title = {Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid},
year = {2020},
keywords = {Aphidius colemani, Bacillus, phylogenetic signal, rpoB, semiochemical, VOCs},
doi = {},
url = {},
pmid = {},
journal = {Oikos},
volume = {},
number = {},
pages = {},
abstract = {There is increasing evidence that microorganisms emit a wide range of volatile compounds (mVOCs, microbial volatile organic compounds) that act as insect semiochemicals, and therefore play an important role in insect behaviour. Although it is generally believed that phylogenetically closely related microbes tend to have similar phenotypic characteristics and therefore may elicit similar responses in insects, currently little is known about whether the evolutionary history and phylogenetic relationships among microorganisms have an impact on insect-microbe interactions. In this study, we tested the hypothesis that phylogenetic relationships among 40 Bacillus strains isolated from diverse environmental sources predicted mVOC composition and the olfactory response of the generalist aphid parasitoid Aphidius colemani. Results revealed that phylogenetically closely related Bacillus strains emitted similar blends of mVOCs and elicited a comparable olfactory response of A. colemani in Y-tube olfactometer bioassays, varying between attraction and repellence. Analysis of the chemical composition of the mVOC blends showed that all Bacillus strains produced the same set of volatiles, but often in different concentrations and ratios. Benzaldehyde was produced in relatively high concentrations by strains that repel A. colemani, while attractive mVOC blends contained relatively higher amounts of acetoin, 2,3-butanediol, 2,3-butanedione, eucalyptol and isoamylamine. Overall, these results indicate that bacterial phylogeny had a strong impact on mVOC compositions and as a result on the olfactory responses of insects. }
}
Citation for Study 25141

Citation title:
"Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid".

Study name:
"Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid".

This study is part of submission 25141
(Status: Published).
Citation
Goelen T., Sobhy I.S., Vanderaa C., W?ckers F., Rediers H., Wenseleers T., Jacquemyn H., & Lievens B. 2020. Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid. Oikos, .
Authors
-
Goelen T.
(submitter)
-
Sobhy I.S.
-
Vanderaa C.
-
W?ckers F.
-
Rediers H.
-
Wenseleers T.
-
Jacquemyn H.
-
Lievens B.
Abstract
There is increasing evidence that microorganisms emit a wide range of volatile compounds (mVOCs, microbial volatile organic compounds) that act as insect semiochemicals, and therefore play an important role in insect behaviour. Although it is generally believed that phylogenetically closely related microbes tend to have similar phenotypic characteristics and therefore may elicit similar responses in insects, currently little is known about whether the evolutionary history and phylogenetic relationships among microorganisms have an impact on insect-microbe interactions. In this study, we tested the hypothesis that phylogenetic relationships among 40 Bacillus strains isolated from diverse environmental sources predicted mVOC composition and the olfactory response of the generalist aphid parasitoid Aphidius colemani. Results revealed that phylogenetically closely related Bacillus strains emitted similar blends of mVOCs and elicited a comparable olfactory response of A. colemani in Y-tube olfactometer bioassays, varying between attraction and repellence. Analysis of the chemical composition of the mVOC blends showed that all Bacillus strains produced the same set of volatiles, but often in different concentrations and ratios. Benzaldehyde was produced in relatively high concentrations by strains that repel A. colemani, while attractive mVOC blends contained relatively higher amounts of acetoin, 2,3-butanediol, 2,3-butanedione, eucalyptol and isoamylamine. Overall, these results indicate that bacterial phylogeny had a strong impact on mVOC compositions and as a result on the olfactory responses of insects.
Keywords
Aphidius colemani, Bacillus, phylogenetic signal, rpoB, semiochemical, VOCs
About this resource
- Canonical resource URI:
http://purl.org/phylo/treebase/phylows/study/TB2:S25141
- Other versions:
Nexus
NeXML
- Show BibTeX reference
@ARTICLE{TreeBASE2Ref30045,
author = {Tim Goelen and Islam S Sobhy and Christophe Vanderaa and Felix W?ckers and Hans Rediers and Tom Wenseleers and Hans Jacquemyn and Bart Lievens},
title = {Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid},
year = {2020},
keywords = {Aphidius colemani, Bacillus, phylogenetic signal, rpoB, semiochemical, VOCs},
doi = {},
url = {},
pmid = {},
journal = {Oikos},
volume = {},
number = {},
pages = {},
abstract = {There is increasing evidence that microorganisms emit a wide range of volatile compounds (mVOCs, microbial volatile organic compounds) that act as insect semiochemicals, and therefore play an important role in insect behaviour. Although it is generally believed that phylogenetically closely related microbes tend to have similar phenotypic characteristics and therefore may elicit similar responses in insects, currently little is known about whether the evolutionary history and phylogenetic relationships among microorganisms have an impact on insect-microbe interactions. In this study, we tested the hypothesis that phylogenetic relationships among 40 Bacillus strains isolated from diverse environmental sources predicted mVOC composition and the olfactory response of the generalist aphid parasitoid Aphidius colemani. Results revealed that phylogenetically closely related Bacillus strains emitted similar blends of mVOCs and elicited a comparable olfactory response of A. colemani in Y-tube olfactometer bioassays, varying between attraction and repellence. Analysis of the chemical composition of the mVOC blends showed that all Bacillus strains produced the same set of volatiles, but often in different concentrations and ratios. Benzaldehyde was produced in relatively high concentrations by strains that repel A. colemani, while attractive mVOC blends contained relatively higher amounts of acetoin, 2,3-butanediol, 2,3-butanedione, eucalyptol and isoamylamine. Overall, these results indicate that bacterial phylogeny had a strong impact on mVOC compositions and as a result on the olfactory responses of insects. }
}
- Show RIS reference
TY - JOUR
ID - 30045
AU - Goelen,Tim
AU - Sobhy,Islam S
AU - Vanderaa,Christophe
AU - W?ckers,Felix
AU - Rediers,Hans
AU - Wenseleers,Tom
AU - Jacquemyn,Hans
AU - Lievens,Bart
T1 - Bacterial phylogeny predicts volatile organic compound composition and olfactory response of an aphid parasitoid
PY - 2020
KW - Aphidius colemani
KW - Bacillus
KW - phylogenetic signal
KW - rpoB
KW - semiochemical
KW - VOCs
UR -
N2 - There is increasing evidence that microorganisms emit a wide range of volatile compounds (mVOCs, microbial volatile organic compounds) that act as insect semiochemicals, and therefore play an important role in insect behaviour. Although it is generally believed that phylogenetically closely related microbes tend to have similar phenotypic characteristics and therefore may elicit similar responses in insects, currently little is known about whether the evolutionary history and phylogenetic relationships among microorganisms have an impact on insect-microbe interactions. In this study, we tested the hypothesis that phylogenetic relationships among 40 Bacillus strains isolated from diverse environmental sources predicted mVOC composition and the olfactory response of the generalist aphid parasitoid Aphidius colemani. Results revealed that phylogenetically closely related Bacillus strains emitted similar blends of mVOCs and elicited a comparable olfactory response of A. colemani in Y-tube olfactometer bioassays, varying between attraction and repellence. Analysis of the chemical composition of the mVOC blends showed that all Bacillus strains produced the same set of volatiles, but often in different concentrations and ratios. Benzaldehyde was produced in relatively high concentrations by strains that repel A. colemani, while attractive mVOC blends contained relatively higher amounts of acetoin, 2,3-butanediol, 2,3-butanedione, eucalyptol and isoamylamine. Overall, these results indicate that bacterial phylogeny had a strong impact on mVOC compositions and as a result on the olfactory responses of insects.
L3 -
JF - Oikos
VL -
IS -
ER -