Soft machines: Fast, low-voltage actuator for soft and wearable robotics

In the world of robotics, soft robots are the new kids on the block. The unique capabilities of these automata are to bend, deform, stretch, twist or squeeze in all the ways that conventional rigid robots cannot. Today, it is easy to envision a world in which humans and robots collaborate — in close proximity — in many realms. Emerging soft robots may help to ensure that this can be done safely, and in a way that syncs to human environments or even interfaces with humans themselves.
Soft machines: Fast, low-voltage actuator for soft and wearable robotics

Robotic assembly of the world's smallest house — Even a mite doesn't fit through the door!

A nanorobotics team has assembled a new microrobotics system that pushes forward the frontiers of optical nanotechnologies. Combining several existing technologies, the newly developed nanofactory builds microstructures in a large vacuum chamber and fixes components onto optical fiber tips with nanometer accuracy. The microhouse construction demonstrates how researchers can advance optical sensing technologies when they manipulate ion guns, electron beams and finely controlled robotic piloting.
Robotic assembly of the world's smallest house — Even a mite doesn't fit through the door!

3D-printed smart gel that walks underwater, moves objects

Engineers have created a 3D-printed smart gel that walks underwater and grabs objects and moves them. The watery creation could lead to soft robots that mimic sea animals like the octopus, which can walk underwater and bump into things without damaging them. It may also lead to artificial heart, stomach and other muscles, along with devices for diagnosing diseases, detecting and delivering drugs and performing underwater inspections.
3D-printed smart gel that walks underwater, moves objects

Robots grow mini-organs from human stem cells

A robotic system has been developed to automate the production of human mini-organs derived from stem cells. The ability to rapidly, mass produce organoids promises to expand the use of mini-organs in basic research and drug discovery. The system was tested in producing kidney organoids, including models of polycystic kidney disease. The robots were also programmed to analyze the organoids they produced.
Robots grow mini-organs from human stem cells