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Watching a swarm of mini robots throw shapes is weirdly hypnotic

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Like a flock of sparrows or a giant school of fish, researchers in Harvard University’s Self-Organizing Systems Research Group have developed a “large-scale robot collective” capable of assembling to form a variety of different shapes.

In the work — which was recently presented at the International Symposium on Distributed Autonomous Robotic Systems (DARS) — the 725 Kilobot robots start out in a tight grid-like group, before those not required to form a certain pattern disperse to leave the desired shape. Doing this requires a coordinated system in which the robots are able to determine a plan of action, based on a single overhead light, which they follow.

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Impressively, much like the aforementioned example of birds or fish, they are able to do this despite only being able to communicate with robots up to three body lengths away — so that each robot can only communicate with a maximum of 36 other robots at any given time.

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“Shape formation is an important problem in multi-agent systems,” researcher Melvin Gauci, a postdoctoral fellow in the Self-Organizing Systems Research Group, told Digital Trends. “It is a challenging, multifaceted problem that requires high degrees of autonomy, and is therefore a good test-bed for integrating atomic algorithms into higher-level behaviors. In this case, the atomic behaviors include self-organized coordinate system formation, consensus, and random and light-based motion.”

According to Gauci, one possible real-world application of this work is in building multi-robot systems that are able to assume a desired formation in order to adapt to its changing environment.

“Further down the line, the vision is to scale these systems down in size to achieve programmable matter where a user will be able to create a tool or part on the fly from a ‘bucket’ of robotic ‘atoms,’” he said.

Luke Dormehl
I'm a UK-based tech writer covering Cool Tech at Digital Trends. I've also written for Fast Company, Wired, the Guardian…
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