Archive for the 'Molecular Electronics' Category
Posted by Jim Lewis on January 21st, 2013
Electrons from a scanning tunneling microscope tip turn a five-arm rotor connected via a single ruthenium atom bearing to a tripod anchoring the molecular motor to a gold surface.
Posted in Artificial Molecular Machines, Atomically Precise Manufacturing (APM), Computational nanotechnology, Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanotech, Nanotechnology, Productive Nanosystems, Research | 1 Comment »
Posted by Jim Lewis on May 26th, 2012
Darpa has launched a “Living Foundries” program to bring an engineering perspective to synthetic biology to greatly accelerate progress through standardization and modularization.
Posted in Artificial Molecular Machines, Atomically Precise Manufacturing (APM), Bionanotechnology, Government programs, Military nanotechnology, Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanobiotechnology, Nanobusiness, Nanotech, Nanotechnology, Productive Nanosystems | 3 Comments »
Posted by Jim Lewis on April 21st, 2012
Creating a superlattice by placing graphene on boron nitride may allow control of electron motion in graphene and make graphene electronics practical.
Posted in Molecular Electronics, Molecular Nanotechnology, Nano, Nanotech, Nanotechnology, Research | No Comments »
Posted by Jim Lewis on February 20th, 2012
Artist’s conception of a nanopore drilled into a layer of graphene to speed up DNA sequencing. One of the greatest promises of near-term nanotechnoloogy is cheaper DNA sequencing to speed the development of personalized medicine. There are not only genetic differences between different patients, but also genetic differences between, for example, different cancers of the [...]
Posted in Bionanotechnology, Future Medicine, Health & longevity, Molecular Electronics, Nano, Nanobiotechnology, Nanomedicine, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | 4 Comments »
Posted by Jim Lewis on February 19th, 2012
Researchers in Australia and the US have demonstrated a working transistor by placing of single atom of phosphorous with atomic precision between gates made of wires only a few phosphorous atoms wide. This demonstration points to possibly extending current computer technology to the atomic scale.
Posted in Atomically Precise Manufacturing (APM), Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanotech, Nanotechnology, Productive Nanosystems, Research, Roadmaps | 1 Comment »
Posted by Jim Lewis on February 12th, 2012
A field-effect tunneling transistor comprising a vertical heterostructure of atomically thin layers of graphene and boron nitride or molybdenum disulfide may pave the way for computer chips based on graphene nanotechnology.
Posted in Molecular Electronics, Molecular Nanotechnology, Nano, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | No Comments »
Posted by Jim Lewis on January 13th, 2012
An array of 96 iron atoms on a copper nitride surface, assembled using an STM and used to write a byte, demonstrates how small magnetic storage could shrink and may lead to novel nanomaterials for quantum computers.
Posted in Atomically Precise Manufacturing (APM), Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanotech, Nanotechnology, Research | 3 Comments »
Posted by Jim Lewis on December 19th, 2011
How small could a molecular switch be made? It is difficult to think of one smaller than the single proton switch just demonstrated by this group in Germany.
Posted in Artificial Molecular Machines, Molecular Electronics, Molecular Nanotechnology, Nano, Nanotech, Nanotechnology, Research | 1 Comment »
Posted by Christine Peterson on June 2nd, 2011
We are proud to announce our final conference program for Foresight@Google‘s 25th Anniversary Conference Celebration, held June 25-26 in Mountain View, CA. For $50 off registration use code: NANODOT This weekend – full of plenary talks, panels, and breakout sessions – is a unique opportunity to be stimulated, enlightened and inspired by direct interaction with [...]
Posted in About Foresight, Artificial Molecular Machines, Atomically Precise Manufacturing (APM), Bionanotechnology, Computational nanotechnology, Foresight Kudos, Foresight News, Foresight News, Meetings & Conferences, Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanobiotechnology, Nanobusiness, Nanojobs, Nanoscale Bulk Technologies, Nanotech, Productive Nanosystems, Public participation, Senior Associates | No Comments »
Posted by Jim Lewis on May 17th, 2011
A bacterial virus called M13 was genetically engineered to control the arrangement of carbon nanotubes, improving solar-cell efficiency by nearly one-third.
Posted in Atomically Precise Manufacturing (APM), Bionanotechnology, Energy, Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanobiotechnology, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Productive Nanosystems, Research, Roadmaps | 1 Comment »
Posted by Jim Lewis on April 29th, 2011
Smaller, faster, cooler: graphene transistors show promise for practical analog signal processors, for magnetic memory devices, and for self-cooling electronic circuits.
Posted in Molecular Electronics, Molecular Nanotechnology, Nano, Nanobusiness, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | No Comments »
Posted by Jim Lewis on March 15th, 2011
A shear flow processing method has been developed to control the surface attachment and orientation of DNA molecules to use for DNA-organic semiconductor molecular building blocks.
Posted in Bionanotechnology, Molecular Electronics, Molecular Nanotechnology, Nano, Nanobiotechnology, Nanotech, Nanotechnology, Research | No Comments »
Posted by Jim Lewis on March 11th, 2011
A step toward advanced nanotechnology has been achieved by using attachment to a surface and confinement by surrounding molecules to make two molecules react to form a product that would not form if they were free to react in solution.
Posted in Atomically Precise Manufacturing (APM), Computational nanotechnology, Energy, Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanotech, Nanotechnology, Productive Nanosystems, Research | 2 Comments »
Posted by Jim Lewis on March 8th, 2011
Sputtering a pattern of zinc atoms on a graphene surface, followed by an acid rinse to remove the zinc, also removes exactly one atomic layer of graphene from where ever the graphene was covered with zinc atoms, forming a pattern on the graphene surface that is atomically precise in the vertical dimension. Resolution in the horizontal dimensions is determined by the mask used to sputter zinc.
Posted in Atomically Precise Manufacturing (APM), Molecular Electronics, Molecular Nanotechnology, Molecular manufacturing, Nano, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | 1 Comment »
Posted by Jim Lewis on February 20th, 2011
New options to control nanoelectronic systems may arise from the demonstration that mechanical manipulation can control conductance through single molecule electrode junctions.
Posted in Molecular Electronics, Nano, Nanotech, Nanotechnology, Research | 1 Comment »
Posted by Jim Lewis on February 14th, 2011
James C. Ellenbogen writes to provide insight and personal perspective on the world’s first programmable nanoprocessor, achieved as the product of a collaboration between Harvard and MITRE, with the team at MITRE comprising Shamik Das, James Klemic, and Ellenbogen.
Posted in Foresight Kudos, Foresight News, Molecular Electronics, Molecular Nanotechnology, Nano, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | 4 Comments »
Posted by Jim Lewis on February 9th, 2011
Researchers at Harvard and MITRE have produced the world’s first programmable nanoprocessor
Posted in Foresight Kudos, Foresight News, Molecular Electronics, Molecular Nanotechnology, Nano, Nanoscale Bulk Technologies, Nanotech, Nanotechnology, Research | 3 Comments »
Posted by Jim Lewis on December 23rd, 2010
Sometimes the behavior of electrons in nanostructures can be modelled using classical laws of motion, while at other times more computationally challenging quantum methods are necessary to obtain useful results. Christopher W. Ince of the Nanotechnology Research Foundation writes with news of a new method to distinguish classical from quantum behavior in electrons: Researchers from [...]
Posted in Computational nanotechnology, Molecular Electronics, Molecular Nanotechnology, Nano, Nanoscale Bulk Technologies, Nanotech, Nanotechnology | No Comments »
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