New nano-generators can turn mechanical energy – like that of flowing blood – into electricity needed to power nanobots.
The tiny generators are the brainchild of Dr. Yong Shi, a professor in the Mechanical Engineering Department at Stevens Institute of Technology. They make use of a technology known as piezoelectric nanofibers, which are minuscule wires that are able to harness nearby mechanical energy (basically the energy of motion) and turn it into electrical energy. Each wire measures half a millimeter long and just 60 billionths of a meter in diameter.
from Harvard Medical School:
By emulating nature’s design principles, a team at Harvard’s Wyss Institute for Biologically Inspired Engineering, Harvard Medical School and Dana-Farber Cancer Institute has created nanodevices made of DNA that self-assemble and can be programmed to move and change shape on demand.
In contrast to existing nanotechnologies, these programmable nanodevices are highly suitable for medical applications because DNA is both biocompatible and biodegradable.
The work appears in the June 20 advance online Nature Nanotechnology.
A British scientist says he is the first man in the world to become infected with a computer virus. Dr Mark Gasson from the University of Reading contaminated a computer chip which was then inserted into his hand.
Dr Gasson admits that the test is a proof of principle but he thinks it has important implications for a future where medical devices such as pacemakers and cochlear implants become more sophisticated, and risk being contaminated by other human implants.
DURHAM, N.C. – In a single day, a solitary grad student at a lab bench can produce more simple logic circuits than the world’s entire output of silicon chips in a month.
So says a Duke University engineer, who believes that the next generation of these logic circuits at the heart of computers will be produced inexpensively in almost limitless quantities. The secret is that instead of silicon chips serving as the platform for electric circuits, computer engineers will take advantage of the unique properties of DNA, that double-helix carrier of all life’s information.
from h+ Magazine: (Previously covered here)
The press release from Michigan Tech asserts that it is “the first time a brain-like ‘evolutionary circuit’ has been realized.”
His new molecular computer uses an organic molecular layer and can evolve to solve complex problems, similar to neurons. Like the human brain — and unlike any existing computer — the tiny molecular computer heals itself if there is a defect.
Anirban Bandyopadhyay, from the Japanese National Institute for Materials Science, explains: “No existing man-made computer has this property, but our brain does. If a neuron dies, another neuron takes over its function.”
An international research team from Japan and Michigan Technological University have demonstrated a molecular circuit that can evolve continuously to solve complex problems that challenge today’s supercomputers.
The massively parallel circuit contains a layer of molecular switches (monolayer) that simultaneously interact in a manner similar to the information processing performed by the neurons in the human brain. That is, they can evolve to tackle complex problems. That’s because information processing circuits in digital computers are static, and operate serially.
from NEXT BIG FUTURE:
What looks possible by 2020 if the research from five different research groups can be combined ?
Here is the five things to combine-
1. Montreal researchers have created computer controlled bacteria to make nanopyramids.
Magnetic nanoparticles under computer control – determine how the cilia operate.
2. Other researchers have placed 3 micron X 3 micron by half a micron chips inside living cells and
3. in the same article as number 2 other researchers have used magnetized nanoparticles to control cells and hold them in desired positions and shapes
4. From the exclusive nextbigufuture interview with an executive from Tilera, a company that makes One hundred core CPUs that use 7 times less energy for the same processing power as Intel chips.
Tilera forecast making 3D cube chips with 1000 cores by 2020.
5. Memristor-CMOS hybrid chips are close – probably first one commercial within 3 years.