Positional Diamondoid Mechanosynthesis
OwnerRobert A. Freitas, JR., Ralph C. Merkleinventors
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OwnerRobert A. Freitas, JR., Ralph C. Merkleinventors
Estimating the term…
The invention provides methods of using positionally controlled molecular tools in an inert environment (such as ultra high vacuum) to fabricate complex atomically precise structures, including diamond, graphite, nanotubes, fullerenes, additional sets of the selfsame molecular tools, and others. Molecular tools have atomically precise tooltips which interact directly with a workpiece to add, remove, and modify specific atoms and groups of atoms, and have handles by which they can be held and positioned; tools can be recharged after use. Specific tooltips are brought into contact with and bond to specific feedstock molecules distributed on a presentation surface, and then transfer said feedstock molecules to specific atomic sites on a workpiece using mechanosynthetic chemical reactions. Specific sites on a workpiece can be made chemically reactive, facilitating the transfer of specific groups to them. Repeated applications of molecular tools at different locations on a workpiece can build a desired atomically precise structure.
An apparatus for performing a site-specific mechanosynthetic chemical reaction, the apparatus comprising:
An apparatus for performing mechanosynthesis, comprising:
An apparatus for performing mechanosynthesis, the apparatus comprising:
An apparatus for performing a site-specific mechanosynthetic chemical reaction, the apparatus comprising:
An apparatus for performing a site-specific mechanosynthetic chemical reaction, the apparatus comprising:
An apparatus for performing mechanosynthesis comprising
A method for performing one or a plurality of site-specific mechanosynthetic chemical reactions in an inert environment by the application of mechanical force, comprising:
A method for performing mechanosynthesis in which a positionally controlled mechanosynthetic tool is bonded to a workpiece, whereupon the further positionally controlled movement of the bonded tooltip causes a change in the molecular geometry or the electronic state of one or more atoms comprising the workpiece.
A method in which a discharged dicarbon bridge (DCB) or monocarbon bridge (MCB) mechanosynthetic dimer placement tooltip is recharged by
A method of providing feedstock molecules for mechanosynthetic chemical reactions comprising:
A method for building a mechanosynthetic tool, the tool comprising:
A material produced by the application of a single or plurality of mechanosynthetically active tooltips or mechanosynthetically active tools to a workpiece in a series of one or more reaction steps or reaction sequences, under continuous positional control in such a manner as to compel a single or plurality of atoms to be transferred between the workpiece and the single or plurality of applied mechanosynthetically active tooltips or mechanosynthetically active tools, in a single or plurality of chemical reactions or reaction sequences driven by the application of mechanical force in an inert environment.
A system comprising a toolset of mechanosynthetically active tooltips and mechanosynthetically active tool and a method set of mechanosynthetic reactions and reaction sequences that can make all of the tools in the toolset and can perform all of the methods in the method set, using mechanosynthetic chemical reactions or reaction sequences driven by the application of mechanical force in an inert environment.
A system comprising a plurality of mechanosynthetically active tools that can make multi-atom three dimensional structures using mechanosynthetic chemical reactions or reaction sequences driven by the application of mechanical force in an inert environment.
Dependencies are inferred from the claim text.