Fitted with nanoscale grippers, these microrobots offer new opportunities for imaging and manipulating single cells.

Fitted with nanoscale grippers, these microrobots offer new opportunities for imaging and manipulating single cells.
Swarms of iron-clad algae have been built to sweep through bodies of water to collect elusive bits of micro- and nanoplastics.
Scientists have developed a method to produce millimeter-scale soft robots by chemically binding hundreds of microrobots together.
To curb the rising threat of fungal infections, researchers crafted iron oxide nanoparticles as speedy, effective, and inexpensive antifungal agents.
Microrobots dubbed “microwalkers” can both swim and walk, allowing them to transverse challenging biological environments.
Living microrobots made from algae were weaponized to help fight tumors by improving the effectiveness of cancer therapies.
Hybrid microrobots harvest chemical energy from their environment for self-propulsion while releasing reactive species to kill bacteria.
Using stimuli-responsive hydrogels with regularly arranged colloidal particles, researchers create color-changing microrobots that can freely explore and gather information.
A new material gives way to simple microrobots that take advantage of mineralization processes in the body to help in bone repair.
Researchers find the sweet spot between strength and biocompatibility in these tiny cell-carrying microrobots.