P.C. Rossin College of
Engineering and Applied Science
BioE researcher Javier Buceta explains how even kindergartners know how to make the model that gave rise to the scutoid

What do honeycombs, the cells in dragonfly wings, and the brown spots on a giraffe's fur have in common? 

They are all examples of naturally occuring, puzzle-like patterns that may be modeled through a mathmatical technique known as a Voronoi tessellation—a model that gave rise to the recent discovery of the scutoid, a new shape identified by a team of researchers, including Lehigh's Dr. Javier Buceta, studying epithelial cells. 

In a recent Scientific American article, Buceta, an associate professor of bioengineering and a faculty member in the chemical and biomolecular engineering department, explains that the model is commonly observed in nature. "Even kindergarteners know how to make Voronoi tessellations," he says, describing an example involving kids running to candy tossed randomly in a classroom where they are playing. 

Writer Susan D'Agostino spells out Buceta's child's play example and details how we unknowingly use Voronoi tessallations in our daily lives, in the full story on Scientific American's website.

kid holding candy

Researcher Javier Buceta uses an example involving kids and candy to describe Voronoi tessellations in a recent Scientific American article.

Giraffe fur

The irregular puzzle-like pattern of a giraffe’s fur can be modeled with a mathematical technique known as a Voronoi tessellation.