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        Nanotechnology produces molecular switches that might lead to petabyte electronic memory

        Nanotechnology using a molecular-scale switch could enable storing half a petabyte on one square inch.

        Highest intrinsic electron mobility advances nanotechnology prospects for graphene

        Advancing the case for graphene in nanotech is the recent demonstration that the intrinsic mobility of electrons in graphene is much greater than in silicon or in any other conventional semiconductor.

        Adapting nanotechnology to conventional silicon microtechnology

        Researchers have assembled molecular films on the Si(100) surface utilized in conventional CMOS technologies and shown them to be of comparable quality to those assembled in earlier studies on the Si(111) surface, which is not compatible with CMOS.

        Less noise with nanotechnology devices using two atomic layers of graphene

        IBM announced (credit PhysOrg.com) that stacking two layers of graphene—one on top of the other—reduces noise that has bedeviled attempts to build nanoelectronic circuits from graphene. From “IBM Scientists ‘Quiet’ Unruly Electrons in Atomic Layers of Graphite“: [IBM researchers] today announced a discovery that combats one of the industry’s most perplexing problems in using graphite… Continue reading Less noise with nanotechnology devices using two atomic layers of graphene

        Building chips with DNA nanotechnology

        Researchers at IBM are developing DNA nanotechnology to assemble nanoelectronic components into arrays in a bid to replace current lithographic methods of making computer chips.

        Nanotechnology: Quantum drums might aid in designing nano-electronic circuits or quantum computing

        In a virtuoso demonstration of nanotechnology, researchers used a scanning tunneling microscope (STM) to build walls of carbon monoxide molecules to confine electrons on a copper surface so that they resonate like a drum.

        Precisely controlled electron beam provides top-down approach to molecular nanotechnology

        French nanotech researchers have used theory to increase the precision of carving with electron beams enough to remove individual atoms from single walled carbon and boron nitride nanotubes.

        Ultra-dense memory device uses molecular nanotechnology

        Physorg.com and many others report a molecular nanotechnology achievement by a UCLA/Caltech nanotech team: A team of UCLA and California Institute of Technology chemists reports in the Jan. 25 issue of the journal Nature the successful demonstration of a large-scale, “ultra-dense” memory device that stores information using reconfigurable molecular switches. This research represents an important… Continue reading Ultra-dense memory device uses molecular nanotechnology

        Nanotech included in semiconductor industry roadmap

        Robert Bradbury brings to our attention an article by John Markoff in The New York Times on the inclusion of nanotech into the semiconductor industry’s roadmap: “Nanotechnology is officially on the road map. A handful of futuristic chip-making technologies at the atomic scale have been added to an industry planning effort that charts the future… Continue reading Nanotech included in semiconductor industry roadmap

        "Atomic Switch" coming from Masakazu Aono

        Longtime Foresight readers will remember Masakazu Aono from his pioneering Atomcraft Project started in 1989. Now he’s working on “Atomic Electronics” based on an “Atomic Switch”; see the report in today’s Japan Nanonet Bulletin. This is interesting, but we were more excited by the earlier bottom-up fabrication work. Dr. Aono has some advice: “Researchers should… Continue reading "Atomic Switch" coming from Masakazu Aono

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