Desiccation Resistance and Micro-Climate Adaptation: Cuticular Hydrocarbon Signatures of Different Argentine Ant Supercolonies Across California

Cuticular hydrocarbons (CHCs), the dominant fraction of the insects’ epicuticle and the primary barrier to desiccation, form the basis for a wide range of chemical signaling systems. In eusocial insects, CHCs are key mediators of nestmate recognition, and colony identity appears to be maintained thr...

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Veröffentlicht in:Journal of chemical ecology 2018-12, Vol.44 (12), p.1101-1114
Hauptverfasser: Buellesbach, Jan, Whyte, Brian A., Cash, Elizabeth, Gibson, Joshua D., Scheckel, Kelsey J., Sandidge, Rebecca, Tsutsui, Neil D.
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container_end_page 1114
container_issue 12
container_start_page 1101
container_title Journal of chemical ecology
container_volume 44
creator Buellesbach, Jan
Whyte, Brian A.
Cash, Elizabeth
Gibson, Joshua D.
Scheckel, Kelsey J.
Sandidge, Rebecca
Tsutsui, Neil D.
description Cuticular hydrocarbons (CHCs), the dominant fraction of the insects’ epicuticle and the primary barrier to desiccation, form the basis for a wide range of chemical signaling systems. In eusocial insects, CHCs are key mediators of nestmate recognition, and colony identity appears to be maintained through a uniform CHC profile. In the unicolonial Argentine ant Linepithema humile , an unparalleled invasive expansion has led to vast supercolonies whose nestmates can still recognize each other across thousands of miles. CHC profiles are expected to display considerable variation as they adapt to fundamentally differing environmental conditions across the Argentine ant’s expanded range, yet this variation would largely conflict with the vastly extended nestmate recognition based on CHC uniformity. To shed light on these seemingly contradictory selective pressures, we attempt to decipher which CHC classes enable adaptation to such a wide array of environmental conditions and contrast them with the overall CHC profile uniformity postulated to maintain nestmate recognition. n -Alkanes and n -alkenes showed the largest adaptability to environmental conditions most closely associated with desiccation, pointing at their function for water-proofing. Trimethyl alkanes, on the other hand, were reduced in environments associated with higher desiccation stress. However, CHC patterns correlated with environmental conditions were largely overriden when taking overall CHC variation across the expanded range of L. humile into account, resulting in conserved colony-specific CHC signatures. This delivers intriguing insights into the hierarchy of CHC functionality integrating both adaptation to a wide array of different climatic conditions and the maintenance of a universally accepted chemical profile.
doi_str_mv 10.1007/s10886-018-1029-y
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In eusocial insects, CHCs are key mediators of nestmate recognition, and colony identity appears to be maintained through a uniform CHC profile. In the unicolonial Argentine ant Linepithema humile , an unparalleled invasive expansion has led to vast supercolonies whose nestmates can still recognize each other across thousands of miles. CHC profiles are expected to display considerable variation as they adapt to fundamentally differing environmental conditions across the Argentine ant’s expanded range, yet this variation would largely conflict with the vastly extended nestmate recognition based on CHC uniformity. 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subjects Adaptability
Adaptation
Adaptation, Physiological
Agriculture
Alkanes
Alkanes - analysis
Alkanes - isolation & purification
Alkanes - metabolism
Alkenes
Animals
Ants - physiology
Argentina
Biochemistry
Biodiversity
Biological Microscopy
Biomedical and Life Sciences
California
Climate
Climate adaptation
Climatic conditions
Colonies
Cuticular hydrocarbons
Cutting resistance
Desiccation
Ecology
Entomology
Environmental conditions
Epicuticle
Gas Chromatography-Mass Spectrometry
Hydrocarbons
Hydrocarbons - analysis
Hydrocarbons - isolation & purification
Hydrocarbons - metabolism
Insects
Introduced Species
Invasive insects
Life Sciences
Linepithema humile
Liquid-Liquid Extraction
Microclimate
Organic chemistry
Recognition
Signalling systems
Signatures
Variation
Waterproofing
title Desiccation Resistance and Micro-Climate Adaptation: Cuticular Hydrocarbon Signatures of Different Argentine Ant Supercolonies Across California
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