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The Analytical Scientist / Issues / 2020 / Feb / Colony Critter Chemistry

Colony Critter Chemistry

Ant brains aren’t the easiest subject to probe, but capillary electrophoresis may lead the way in studies of bug behavior

By Matt Hallam 02/25/2020 1 min read

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Colony-specific behaviors of red forager ants (Pogonomyrmex barbatus) indicate potential neurological differences. Testing this hypothesis, Jill Venton and colleagues literally picked the brains of ants from nine wild colonies, extracting them and separating the contained amines by capillary electrophoresis (CE) coupled with fast-scan cyclic voltammetry.

Venton highlighted the strength of CE when it comes to detecting trace concentrations of analyte – “Perfect for ant brains,” in her words. But the research was not without its difficulties. “The greatest technical challenge was aligning the electrode with the capillary and preparing samples from such small brains,” says Venton.

Low detection limits were achieved for dopamine, octopamine, serotonin and tyramine – with dopamine present in the highest concentrations. The outcome: less amine variation was apparent within colonies than between them, suggesting environmental influences on neurotransmitter content in ants.

Next? Venton says, “Correlation of ant behavior in response to food and environmental conditions with their brain chemistry.” 

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About the Author(s)

Matt Hallam

I've always wanted a job that fosters creativity - even when I worked on the assembly line in a fish factory. Outside work, I satisfy this need by writing questionable fiction. The venture into science writing was an unexpected departure from this fiction, but I'm truly grateful for the opportunity to combine my creative side with my scientific mind as Editor of The Analytical Scientist.

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