It looks like you're using an Ad Blocker.
Please white-list or disable AboveTopSecret.com in your ad-blocking tool.
Thank you.
Some features of ATS will be disabled while you continue to use an ad-blocker.
If you did not enjoy "traditional" chemtrails raining down on you, you are not going to like the new version, which the United States Air Force promises will feature aerial dumps of programmable "smart" molecules tens of thousands of times smaller than the particles already landing people in emergency rooms with respiratory, heart and gastrointestinal complaints.
Under development since 1995, the military's goal is to install microprocessors incorporating gigaflops computer capability into "smart particles" the size of a single molecule.
Invisible except under the magnification of powerful microscopes, these nano-size radio-controlled chips are now being made out of mono-atomic gold particles. Networked together on the ground or assembling in the air, thousands of sensors will link into a single supercomputer no larger than a grain of sand
Brought to you by the same military-corporate-banking complex that runs America's permanent wars, Raytheon Corp is already profiting from new weather warfare technologies. The world's fourth largest military weapons maker bought E-Systems in 1995, just one year after that military contractor bought APTI, holder of Bernard Eastlund's HAARP patents.
We can't make super computers that are the size of a grain of sand, let alone gigaflop computers the size of a single molecule.
Under development since 1995, the military's goal is to install microprocessors incorporating gigaflops computer capability into "smart particles" the size of a single molecule.
Invisible except under the magnification of powerful microscopes, these nano-size radio-controlled chips are now being made out of mono-atomic gold particles. Networked together on the ground or assembling in the air, thousands of sensors will link into a single supercomputer no larger than a grain of sand
You have one link from one website which doesn't look very professional. My source is called common sense. But here is another source.
Originally posted by CherubBaby
reply to post by ChaoticOrder
You have a link to back up what you say right? I do.
Boffins have unveiled the world's smallest computer which measures an amazingly small one square millimetre.
World's smallest computer measures just 1mm
Made with Xara After learning my craft as a news photographer on the streets of Milwaukee and Chicago and the musical mud of Woodstock during the 'Sixties, I went on to practice 4x5 large-format photography in the tradition of the masters, including Walker Evans, Paul Strand, Edward Weston, Imogen Cunningham and Ansel Adams. For all the digital advances, I still recall the reek of hypo and developer (though not the attendant pollution!) I especially miss my Hasselblad Superwide, with which I made many mind-expanding exposures during extended solo treks into the Canadian Coast and Rocky Mountains
"We can collect data, store it and transmit it. The applications for systems of this size are endless."
Some of the most common visions of a nanotechnology-fueled future are tiny body-examining cameras that can be swallowed like pills, supercomputers 500 times more powerful than those currently available, and chips the size of sugar cubes capable of storing the entire content of the Library of Congress.
Although nanoscience and nanotechnology affect all areas of life, until recently, they were primarily concerned with electronics, manufacturing, supercomputers, and data storage devices. Recently, nanoscientists have broadened the application of nanotechnology.
Nanodevices, Nanophotonics, and Nanosystems
But nanotechnology has the ability to affect all areas of life, not just electronics, according to Georgia Tech Materials Science and Engineering Professor Z.L. Wang, an expert in nanotechnology who was recently named by Science Watch as one of the world's most cited authors in nanotechnology research. The director of Georgia Tech's Center for Nanoscience and Nanotechnology, Wang studies a variety of nano-sized materials and shapes that will be used to create tiny devices, robots, and sensors. He has created nanobelts, which serve as the basis for very small sensors, flat-panel display components, and electronic and optoelectronic nanodevices, and more recently, nanorings, which can be used for nanometer-scale sensors, resonators and transducers.
Nanotechnology supercomputing center
(Nanowerk News) Rensselaer Polytechnic Institute offered the first glimpse of what is planned to be the world’s most powerful university-based supercomputing center.
The Computational Center for Nanotechnology Innovations (CCNI), the result of a $100 million partnership involving Rensselaer, IBM, and New York state, is designed to continue advancing semiconductor technology to the nanoscale, while also enabling key nanotechnology innovations in the fields of energy, biotechnology, arts, and medicine.
“As scientists and engineers continue to drive technology down to the nanoscale, the need for computing power grows by many orders of magnitude,” said Rensselaer President Shirley Ann Jackson. “This new center will provide unprecedented tools for simulating interactions among atoms and molecules, allowing researchers to model new nanotechnology-based products and to attack fundamental scientific questions at the nanoscale level, as well. This will be done, at this level, in much the same way as cars and planes are designed with computer models before they are built. We are grateful for the shared vision with Senator Joseph Bruno and John Kelly of IBM as we work together to explore new frontiers of supercomputing.”
As far as transistor size is concerned, it doesn't get any smaller than this. An international group of researchers from the Helsinki University of Technology, the University of New South Wales and the University of Melbourne have successfully built a fully working transistor that is just one atom in size, smashing previous records and, more importantly, creating a very unique venue to study phenomena to be exploited in the rapidly developing field of quantum computing.