Science Snapshot: Here’s Lookin’ At You, Kid

Experimentally nudging the patterning within the compound eyes of insects.

Written byLisa Winter
| 1 min read
Close up view of fruit fly
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For animals with compound eyes to get a complete view of their environment, each optical unit needs to be arranged in a regular pattern. It is most common for these so-called ommatidia to have six sides and to be nestled together in a hexagonal tessellation, much like a tiled floor. Certain mutations in fruit flies can cause tetragonal patterning, which is the tessellation more commonly found in marine animals as well. If both shapes can exist, what causes one pattern over another?

A recent study published in Current Biology investigated the development of Drosophila’s compound eye by comparing the wild-type arrangement of ommatidia with two mutations that inhibit regulatory developmental pathways in the eye. These so-called small-eye mutations resulted in significantly fewer ommatidia and thus required each ommatidium to migrate further to reach its neighbor, resulting in four-sided patterns to fill the space. In the wild-type, hexagonal shapes arose from ...

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  • Lisa joined The Scientist in 2017. As social media editor, some of her duties include creating content, managing interactions, and developing strategies for the brand’s social media presence. She also contributes to the News & Opinion section of the website. Lisa holds a degree in Biological Sciences with a concentration in genetics, cell, and developmental biology from Arizona State University and has worked in science communication since 2012.

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