Inspired by origami, engineers have created a robot made of plastic cubes that can transform into more than 1,000 different shapes.

Microscopic pipes, two million times smaller than an ant, could one day funnel drugs to individual human cells without fear of leaking.

Creating satellites that could travel flat and transform themselves into a dish shape would make space exploration easier, say researchers.

A new method for creating stretchy supercapacitors could pave the way for more flexible and dynamic wearable devices, researchers report.

Origami has inpsired a new kind of microbot that can fold itself. It could be useful in fields like medical equipment and infrastructure sensing.

"This opens the door to printing soft robotics that could swim like a jellyfish, jump like a cricket, or transport liquids like the heart."

With a charge, researchers got microparticles to form via self-assembly into complex crystals that mimic gemstones like opals.

A new algorithm could help scientists better understand how zebrafish get their stripes, as well as how other patterns in nature self-assemble.

The "Cheerio effect," a phenomenon that causes small objects to cluster on the surface of a liquid, could help design small aquatic robots, researchers say.

Researchers have taken inspiration from the Japanese paper art of kirigami to make robotic devices that fold themselves into new shapes with a bit of heat.