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FIRST FULLY BIONIC MAN CREATED

"The Incredible Bionic Man" makes his debut at the Washington Air and Space Museum.
“The Incredible Bionic Man” makes his debut at the Washington Air and Space Museum.

A first-ever walking, talking “bionic man” built entirely out of synthetic body parts made his Washington debut on Thursday.

The robot with a human face unveiled at the Smithsonian’s National Air and Space Museum was built by London’s Shadow Robot Co to showcase medical breakthroughs in bionic body parts and artificial organs.

“This is not a gimmick. This is a real science development,” museum director John Dailey said.

I’ve always wondered when and how someone would do this: take all of the existing bionic technology we have today… artificial organs, limbs, etc… and combine it into a single walking, talking being. However, there’s one element that’s missing… the human soul.

Which is why I suspect in this video below Bertolt Meyer, the man who contributed his facial features to the robot, has such intense feelings towards the android upon first seeing it… it is essentially wearing his face.  Meyers is experiencing the creepiness of “the Uncanny Valley,” that is, the point where something is close to being human but not quite there yet, which often elicits feelings of fear and repulsion.

 

The 6-foot-tall (1.83 meter), 170-pound (77-kg) robot is the subject of a one-hour Smithsonian Channel documentary, “The Incredible Bionic Man,” airing on Sunday.

A “bionic man” was the material of science fiction in the 1970s when the television show “The Six Million Dollar Man” showed the adventures of a character named Steve Austin, a former astronaut whose body was rebuilt using synthetic parts after he nearly died.

The robot on display at the museum cost $1 million and was made from 28 artificial body parts on loan from biomedical innovators. They include a pancreas, lungs, spleen and circulatory system, with most of the parts early prototypes.

“The whole idea of the project is to get together all of the spare parts that already exist for the human body today – one piece. If you did that, what would it look like?” said Bertolt Meyer, a social psychologist from the University of Zurich in Switzerland and host of the documentary.

The robot was modelled after Meyer, who was born without a hand and relies on an artificial limb. He showed off the bionic man by having it take a few clumsy steps and by running artificial blood through its see-through circulatory system.

READ MORE:  http://uk.reuters.com/article/2013/10/21/oukoe-uk-usa-bionicman-idUKBRE99G13P20131021

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‘CYBORG’ TISSUE CREATED WITH LIVING CELLS AND ELECTRONICS

The line between human and robot begins to blur.

The future is now folks!

Scientist’s have developed human tissue that is half electronics and half organic cells!

New Scientist writes:

They beat like real heart cells, but the rat cardiomyocytes in a dish at Harvard University are different in one crucial way. Snaking through them are wires and transistors that spy on each cell’s electrical impulses. In future, the wires might control their behaviour too.

Versions of this souped-up, “cyborg” tissue have been created for neurons, muscle and blood vessels. They could be used to test drugsMovie Camera or as the basis for more biological versions of existing implants such as pacemakers. If signals can also be sent to the cells, cyborg tissue could be used in prosthetics or to create tiny robots.

“It allows one to effectively blur the boundary between electronic, inorganic systems and organic, biological ones,” says Charles Lieber, who leads the team behind the cyborg tissue.

Artificial tissue can already be grown on three-dimensional scaffolds made of biological materials that are not electrically active. And electrical components have been added to cultured tissue before, but not integrated into its structure, so they were only able to glean information from the surface.

Lieber’s team combined these strands of work to create electrically active scaffolds. They created 3D networks of conductive nanowires studded with silicon sensors. Crucially, the wires had to be flexible and extremely small, to avoid impeding the growth of tissue. The scaffold also contained traditional biological materials such as collagen.

The researchers were able to grow rat neurons, heart cells and muscle in these hybrid meshes. In the case of the heart cells, they started to contract just like normal cells, and the researchers used the network to read out the rate of the beats.

When they added a drug that stimulates heart cell contraction, they detected an increase in the rate, indicating the tissue was behaving like normal and that the network could sense such changes.

Lieber’s team also managed to grow an entire blood vessel about 1.5 centimetres long from human cells, with wires snaking through it. By recording electrical signals from inside and outside the vessel– something that was never possible before– the team was able to detect electrical patterns that they say could give clues to inflammation, whether tissue has undergone changes that make it prone to tumour formation or suggest impending heart disease.

Read more at www.newscientist.com