Abstract: A method is provided for imprinting a pattern having nanoscale features from a mold into the patternable layer on a substrate. The method comprises: providing the mold; forming the patternable layer on the substrate; and imprinting the mold into the patternable layer, wherein the patternable layer comprises a metal or alloy having a transition temperature from its solid form to its liquid form that is within a range of at least 10° above room temperature.

Abstract: An imprinting apparatus and method of fabrication provide a mold having a pattern for imprinting. The apparatus includes a semiconductor substrate polished in a [110] direction. The semiconductor substrate has a (110) horizontal planar surface and vertical sidewalls of a wet chemical etched trench. The sidewalls are aligned with and therefore are (111) vertical lattice planes of the semiconductor substrate. The semiconductor substrate includes a plurality of vertical structures between the sidewalls, wherein the vertical structures may be nano-scale spaced apart. The method includes wet etching a trench with spaced apart (111) vertical sidewalls in an exposed portion of the (110) horizontal surface of the semiconductor substrate along (111) vertical lattice planes. A chemical etching solution is used that etches the (111) vertical lattice planes slower than the (110) horizontal lattice plane. The method further includes forming the imprinting mold.

Abstract: The present invention provides beam-shaping optics for transforming an approximately gaussian beam profile into a (nearly) uniform distribution over a specified spot area. The beam-shaping optics provide significant advantages over existing beam-shapers in that they are less sensitive to variations in the input beam profiles and can be used over a range of frequencies.

Abstract: Various embodiments of the present invention are directed to a binary signal converter that facilitates distinguishing an original direct signal on a nanowire by superimposing an alternating signal on the original direct signal. The binary signal converter includes an alternating signal source connected to the nanowire that superimposes an alternating signal with an initial amplitude on the nanowire. The binary signal converter may also include a selective alternating signal filter that selectively passes the alternating signal from the nanowire to a signal sink.

Abstract: A tool handle self-contained a set of head tips comprises a handle main body, a set of head tips, a fixing seat and a stop member. The handle main body has on its bottom a fixing hole, and has a receiving groove on a lateral side thereof. The head-tip set includes a base, a protruding column raised from the base and some holding areas on the base; the protruding column has on its upper end a stepped portion; the holding areas each holds and fixes a head tip; when the head-tip set assembled with the receiving groove, the bottom of the base is flush with a lateral side of the handle main body, and the top surface of the protruding column forms at a hole of the receiving groove a pressing area for pressing to push out the head-tip set. A head tip can be fixed on the bottom of handle main body for use as a screwdriver.

Abstract: Molecular-doped devices, including transistors and sensors, for nano-scale applications are provided. The device comprises a substrate, a source and a drain, both supported on the substrate and separated by a distance. The molecular-doped device further comprises a layer or wire of a semiconductor material formed on the substrate between the source and drain and a layer of a molecular-doped polymer formed on the semiconductor layer.

Abstract: Various nanoscale logic gates are disclosed. An alternating current (“AC”) source is superimposed on a direct-current (“DC”), largely resistor-based nanoscale logic circuit in order to provide distinguishable, AC current or voltage logical output signals despite potentially narrow DC-voltage or DC-current ranges produced by the resistor-based nanoscale logic circuit. AC-enhanced AND, OR, NAND, and NOR nanoscale logic gates are provided as four specific embodiments of the present invention.

Abstract: Novel proteins are provided herein, including proteins capable of catalyzing the acetylation of glyphosate and other structurally related proteins. Also provided are novel polynucleotides capable of encoding these proteins, compositions that include one or more of these novel proteins and/or polynucleotides, recombinant cells and transgenic plants comprising these novel compounds, diversification methods involving the novel compounds, and methods of using the compounds. Some of the novel methods and compounds provided herein can be used to render an organism, such as a plant, resistant to glyphosate.

Abstract: A tool handle self-contained a set of screwdriver bits includes a handle and a set of screwdriver bits in the handle. There is a fixed hole provided on the bottom of the handle and a receiving groove provided on the side of the handle. The set of screwdriver bits includes a base, a pillar installed on the base and a plurality of holding parts installed on the base. On the upper end of the pillar, a step portion is provided and each holding part holds a screwdriver bit. After the set of screwdriver bits and the receiving groove are assembled, the bottom of the base and the handle become a smooth surface and the top face of the pillar in the hole of the receiving groove forms a pressing face. If the pressing face is pressed, the set of screwdriver bits will move out from the handle. After the screwdriver bit is locked at the bottom of the handle, it can act as screwdriver. A tool handle self-contained a set of screwdriver bits can suit for various hand tools.

Abstract: Novel proteins are provided herein, including proteins capable of catalyzing the acetylation of glyphosate and other structurally related proteins. Also provided are novel polynucleotides capable of encoding these proteins, compositions that include one or more of these novel proteins and/or polynucleotides, recombinant cells and transgenic plants comprising these novel compounds, diversification methods involving the novel compounds, and methods of using the compounds. Some of the novel methods and compounds provided herein can be used to render an organism, such as a plant, resistant to glyphosate.

Abstract: Embodiments of the present invention are directed to methods for fabricating microscale-to-nanoscale interfaces. In numerous embodiments of the present invention, hybrid microscale/nanoscale crossbar multiplexers/demultiplexers provide for selection and control of individual nanowires through a set of microscale signal lines. In order to overcome the difficulty of aligning nanowires with submicroscale and microscale signal lines, at least a portion of the interconnections between nanowires and sub-microscale or microscale signal lines are randomly generated by one of various connection-fabrication methods. Addresses for individual nanowires, or groups of nanowires, can be discovered by testing the microscale-to-nanoscale interfaces.

Abstract: A sensor array for sensing at least one of chemical moieties and biological moieties is provided. The sensor array comprises a plurality of working electrodes electrically associated with a reference electrode, each working electrode in combination with the reference electrode forming a transducer. Each working electrode is provided with a coating of a sensing element comprised of an ionizable moiety and a functional group sensitive to one of the chemical and/or biological moieties.

Abstract: An electromagnetic coaxial driving injection apparatus, having a linear motor for driving injection and a rotation motor for metering. The linear motor and the rotation motor of both the injection and metering motors and an injection screw are set on a common axis. A connecting device connects moving parts of the motors with the injection screw. Stationary parts of the motors are fastened on a frame and forward-backward moving unit, not moving during injection and metering. Due to the arrangement of the moving parts and the injection screw on a single axis, moving parts are lessened, and transmission losses are minimized. Since the number of structural parts is low, only the moving parts of the motors move during injection while the stationary parts thereof remain at rest, thus greatly reducing inertia.

Abstract: A method for forming first and second linear structures of a first composition that meet at right angles, there being a gap at the point at which the structures meet. The linear structures are constructed on an etchable crystalline layer having the first composition. First and second self-aligned nanowires of a second composition are grown on this layer and used as masks for etching the layer. The self-aligned nanowires are constructed from a material that has an asymmetric lattice mismatch with respect to the crystalline layer. The gap is sufficiently small to allow one of the structures to act as the gate of a transistor and the other to form the source and drain of the transistor. The gap can be filled with electrically switchable materials thereby converting the transistor to a memory cell.

Abstract: An information handling system is provided which includes a wired network controller fixedly mounted in the system and an optional wireless network card which is pluggably receivable by a connector in the system. The system includes a first indicator for annunciating network activity and a second indicator for annunciating that the link is good as well as its link rate. Status processing logic is situated between the wireless card connector, the network controller and the first and second indicators to permit the wireless card and the network controller to share the first and second indicators.

Abstract: A memory device including a substrate, and multiple self-aligned nano-rectifying elements disposed over the substrate. Each nano-rectifying element has multiple first electrode lines, and multiple device structures disposed on the multiple first electrode lines forming the multiple self-aligned nano-rectifying elements. Each device structure has at least one lateral dimension less than about 75 nanometers. The memory device also includes multiple switching elements disposed over the device structures and self-aligned in at least one direction with the device structures. In addition, the memory device includes multiple second electrode lines disposed over, electrically coupled to, and self-aligned to the switching elements, whereby a memory device is formed.

Abstract: A nanoscale or partial nanoscale interface within an electronic device, and a method for producing such interfaces without the need for precise nanoscale alignment of nanoscale elements of a first circuit layer to elements of a second circuit layer, is disclosed. In one embodiment, dimensions of conductive windows fabricated on microelectronic elements are carefully specified, and redundant nanoscale elements are introduced, in order to produce functional nanoscale-to-microscale interfaces despite imprecise nanoscale alignment of nanoscale elements to microscale elements.

Abstract: A memory device including a substrate, and multiple self-alignednano-rectifying elements disposed over the substrate. Each nano-rectifying element has multiple first electrode lines, and multiple device structures disposed on the multiple first electrode lines forming the multiple self-aligned nano-rectifying elements. Each device structure has at least one lateral dimension less than about 75 nanometers. The memory device also includes multiple switching elements disposed over the device structures and self-aligned in at least one direction with the device structures. In addition, the memory device includes multiple second electrode lines disposed over, electrically coupled to, and self-aligned to the switching elements, whereby a memory device is formed.

Abstract: Systems and methods of aligning a lithographic mask are described. In one aspect, a substrate and a lithographic mask are aligned based at least in part on a motive force between a substrate alignment mark on the substrate and a mask alignment mark on the lithographic mask that induces movement of at least one of the substrate and the lithographic mask into mutual alignment.