Making light work of artificial muscles

A new form of self-assembling polymer film that bends and stretches when hit by light is pointing the way to a new family of functional materials. This flexing film is the first material to have been made by coaxing complex ...

Artificial muscles created from gold-plated onion cells

Just one well-placed slice into a particularly pungent onion can send even the most seasoned chef running for a box of tissues. Now, this humble root vegetable is proving its strength outside the culinary world as well—in ...

Artificial muscles get graphene boost

Researchers in South Korea have developed an electrode consisting of a single-atom-thick layer of carbon to help make more durable artificial muscles.

Graphene's piezoelectric promise

Engineers predict that graphene can be coaxed into acting piezoelectric, merely by punching triangular holes into the material.

Jelly invention can heal itself like human skin

Scientists from The Australian National University (ANU) have invented a new jelly material that mimics biological matter such as skin, ligaments and bone, and which is very strong, self-healing and able to change shape.

Artificial 'muscles' may pump up touch-screen typing

Any high schooler sneaking a text message in class can confirm that fingering the right buttons on a cell phone is a cinch, even if it's hidden in your pocket. But how about on a glass touch screen?

Nanomaterials key to developing stronger artificial hearts

On January 30, 2013 ACS Nano published a study by Ali Khademhosseini, PhD, MASc, Brigham and Women's Hospital Division of Biomedical Engineering, detailing the creation of innovative cardiac patches that utilize nanotechnology ...

Hybrid carbon nanotube yarn muscle

Professor Seon Jeong Kim of Hanyang University has created a high capacity yarn muscle that does not require electrolytes or special packaging. It will have a big impact in the motor, biological and robot industry.

A chemically powered autonomous molecular nanomotor

(Phys.org)—A group of scientists at the University of Manchester in the U.K. has developed the first chemically powered autonomous molecular nanomotor—the motor mechanism is itself a transport medium that is capable of ...

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