mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a composite reinforcing material, comprising a step of kneading at least a graphite-based carbon material and a reinforcing material into a base material, the reinforcing material being selected from the group consisting of a metal material, a carbon material, glass fibers, nanocelluloses, nanoclay, aramid fibers, polyethylene fibers, the graphite-based carbon material having rhombohedral graphite layers of rhombohedral crystals and hexagonal graphite layers of hexagonal crystals, wherein the ratio of the rhombohedral graphite layers to the hexagonal graphite layers, based on the X-ray diffraction method in accordance with JIS R 7651:2007, which is defined by following Equation 1, is 31% or more: ratio = P 3 / P 3 + P 4 × 100 wherein P3 is a peak intensity of a plane of the rhombohedral graphite layers based on the X-ray diffraction method, and P4 is a peak intensity of a plane of the hexagonal graphite layers based on the X-ray diffraction method. the reinforcing material being selected from the group consisting of a metal material, a carbon material, glass fibers, nanocelluloses, nanoclay, aramid fibers, polyethylene fibers, the graphite-based carbon material having rhombohedral graphite layers of rhombohedral crystals and hexagonal graphite layers of hexagonal crystals, wherein the ratio of the rhombohedral graphite layers to the hexagonal graphite layers, based on the X-ray diffraction method in accordance with JIS R 7651:2007, which is defined by following Equation 1, is 31% or more: ratio = P 3 / P 3 + P 4 × 100 wherein P3 is a peak intensity of a plane of the rhombohedral graphite layers based on the X-ray diffraction method, and P4 is a peak intensity of a plane of the hexagonal graphite layers based on the X-ray diffraction method.
Nanoparticles of a light emissive polymer, comprising nanoparticles of cyano-substituted poly(arylene vinylene) polymer represented by Formula 1 below; and a biocompatible surfactant adsorbed to the surface of the nanoparticles of the polymer: wherein n is an integer of 10 to 10,000, Ar1 is aryl group selected from the group consisting of phenylene, biphenylene, terphenylene, naphthalenylene, anthracenylene, fluorenylene, diphenylfluorenylene, carbazolylene, thiophenylene, furanylene, pyrrolylene, quinolinylene, quinoxalinylene, oxadiazolylene, diphenyloxadiazolylene, benzazolylene and benzdiazolylene, which are unsubstituted or substituted with a linear or branched C1-10 alkyl, alkoxy or thioalkoxy group; Ar2 is phenylene which is unsubstituted or substituted with at least one linear or branched C1-10 alkyl, alkoxy or thioalkoxy group; and the nanoparticle has aqueous dispersion phase. wherein n is an integer of 10 to 10,000, Ar1 is aryl group selected from the group consisting of phenylene, biphenylene, terphenylene, naphthalenylene, anthracenylene, fluorenylene, diphenylfluorenylene, carbazolylene, thiophenylene, furanylene, pyrrolylene, quinolinylene, quinoxalinylene, oxadiazolylene, diphenyloxadiazolylene, benzazolylene and benzdiazolylene, which are unsubstituted or substituted with a linear or branched C1-10 alkyl, alkoxy or thioalkoxy group; Ar2 is phenylene which is unsubstituted or substituted with at least one linear or branched C1-10 alkyl, alkoxy or thioalkoxy group; and the nanoparticle has aqueous dispersion phase.
A method for fabricating an array substrate, comprising: forming, by a first patterning process, a first active layer, source/drain regions and common electrodes on a substrate, forming a first gate insulating layer on the first active layer, and forming a gate electrode on the first gate insulating layer forming a second gate insulating layer on the common electrodes and the gate electrode, and forming, by a second patterning process, via-holes in the second gate insulating layer to expose surface portions of the common electrodes; forming, by a third patterning process, source/drain electrodes (170 s/d) electrically connected with the source/drain regions through the via-holes; and forming, by a fourth patterning process, a second active layer above the gate electrode and pixel electrodes on the second gate insulating layer. forming, by a first patterning process, a first active layer, source/drain regions and common electrodes on a substrate, forming a first gate insulating layer on the first active layer, and forming a gate electrode on the first gate insulating layer forming a second gate insulating layer on the common electrodes and the gate electrode, and forming, by a second patterning process, via-holes in the second gate insulating layer to expose surface portions of the common electrodes; forming, by a third patterning process, source/drain electrodes (170 s/d) electrically connected with the source/drain regions through the via-holes; and forming, by a fourth patterning process, a second active layer above the gate electrode and pixel electrodes on the second gate insulating layer.
A method for producing a screw having a head, an adjoining retaining section and a functional tip which is of greater hardness than the retaining section and is made of low-alloy hardened carbon steel, which screw is exposed to a carbon- and/or nitrogen-enriched atmosphere following heating to a temperature above the austenitizing temperature and thus undergoes carbon or nitrogen enrichment that is limited to its functional tip, after which the screw is quenched and tempered and thus hardened, wherein the screw is provided with an insulating layer that extends all over its head and its retaining section and acts as a diffusion barrier, and the functional tip undergoes brief heating after tempering so as to increase its hardness, which functional tip has an increased carbon and/or nitrogen content compared to the retaining section, owing to the insulating layer.
A method comprising: establishing a melt stream of a source material (62, 104) in an extruder; dosing a composite material into the melt stream, the composite material including carbon reinforcing fibers comprising carbon reinforcing filaments pre-impregnated by a polymeric material, the composite material having at least 30% of the reinforcing filaments protected by the polymeric material such that the polymeric material surrounds each filament completely forming a barrier between it and an adjacent filament in the at least 30% of the filaments; forming a molding compound from the source (62, 104) and composite materials; dispensing the molding compound from the extruder; and using the molding compound to produce a part, wherein the composite material is in a form of pellets and/or flakes. establishing a melt stream of a source material (62, 104) in an extruder; dosing a composite material into the melt stream, the composite material including carbon reinforcing fibers comprising carbon reinforcing filaments pre-impregnated by a polymeric material, the composite material having at least 30% of the reinforcing filaments protected by the polymeric material such that the polymeric material surrounds each filament completely forming a barrier between it and an adjacent filament in the at least 30% of the filaments; forming a molding compound from the source (62, 104) and composite materials; dispensing the molding compound from the extruder; and using the molding compound to produce a part, wherein the composite material is in a form of pellets and/or flakes.
Method for mounting and fixing of a substrate on one structure side of the substrate, which side has structures, with a mounting apparatus with a mounting element with a flat mounting surface for supporting the structures and with a suction area (F 2) which penetrates the mounting surface solely in an outer ring surface through a continuously and controllable fluid flow, which suctions the substrate, characterized in that the substrate is kept by the structures separated at a distance from the mounting surface, wherein the continuously and controllable fluid flow, which suctions the substrate, is produced in the space between the substrate and the mounting surface.
An extruded, rolled and/or forged aluminum-based alloy product having a thickness of at least 25 mm comprising, or advantageously consisting of (in weight %): Zn 6.70 - 7.40 Mg 1.50 - 1.80 Cu 2.20 - 2.60, wherein the Cu to Mg ratio is at least 1.30 Zr 0.04 - 0.14 Mn 0-0.5 Ti 0 - 0.15 V 0 - 0.15 Cr 0 - 0.25 Fe 0-0.15 Si 0-0.15 impurities ≤ 0.05 each and ≤ 0.15 total, remainder aluminum. Zn 6.70 - 7.40 Mg 1.50 - 1.80 Cu 2.20 - 2.60, wherein the Cu to Mg ratio is at least 1.30 Zr 0.04 - 0.14 Mn 0-0.5 Ti 0 - 0.15 V 0 - 0.15 Cr 0 - 0.25 Fe 0-0.15 Si 0-0.15
A cutting tool, comprising: first (108, 208, 308, 408, 508) and second (110, 210, 310, 410, 510) shearing blades mounted for relative pivotal movement about a pivot axis and having respective cutting edges (112, 114) defining therebetween a transverse cutting plane substantially normal to said pivot axis, said first and second blades having respective first and second distal blade portions that converge transversely as the blades relatively advance from an open position to engage a workpiece disposed between the blades (108, 208, 308, 408; 210, 310,410,510) characterized in a guide mechanism including a guide member (122, 222, 322, 422, 522) mounted to the first blade (108, 208, 308, 408, 508) for transverse movement relative to the first distal blade portion and toward and away from the second distal blade portion, said guide member (122, 222, 322, 422, 522) having transverse restraining surfaces (124, 224, 324) that confront transverse guided surfaces of both distal blade portions during cutting to resist axial separation of the cutting edges (112, 114) away from the cutting plane.
A vascular occlusion device, comprising: a tubular member formed from a plurality of braided filaments that define an outer surface having a mesh pattern with mesh openings defined by the braided filaments, the tubular member having a first porosity region along a first length portion of the tubular member and a second porosity region along a second length portion of the tubular member, wherein the first porosity region includes filaments having a different shape than the filaments in the second porosity region and the porosity of the first porosity region being less than the porosity of the second porosity region, and characterized by the tubular member having a constant number of picks per 2.54 cm (picks per inch) count throughout its entire length. a tubular member formed from a plurality of braided filaments that define an outer surface having a mesh pattern with mesh openings defined by the braided filaments, the tubular member having a first porosity region along a first length portion of the tubular member and a second porosity region along a second length portion of the tubular member, wherein the first porosity region includes filaments having a different shape than the filaments in the second porosity region and the porosity of the first porosity region being less than the porosity of the second porosity region, and characterized by the tubular member having a constant number of picks per 2.54 cm (picks per inch) count throughout its entire length.
A process for making thermoplastic polymer pellets, comprising: (a) melting a thermoplastic polymer to form a polymer melt; (b) extruding the melt through a die to form a substantially continuous molten polymer extrudate; (c) cooling the extrudate to form a cooled extrudate; and (d) pelletizing the cooled extrudate to form a plurality of polymer pellets; characterized in that the die has a contact surface bearing a polymer coating having a surface energy of less than 25 mN/m at 20°C. (a) melting a thermoplastic polymer to form a polymer melt; (b) extruding the melt through a die to form a substantially continuous molten polymer extrudate; (c) cooling the extrudate to form a cooled extrudate; and (d) pelletizing the cooled extrudate to form a plurality of polymer pellets; characterized in that the die has a contact surface bearing a polymer coating having a surface energy of less than 25 mN/m at 20°C.
An adjustable programming circuit (5200, 5300) configured to generate one of a plurality of different voltages to program a non-volatile memory cell to store one of a plurality of different voltages on a floating gate of the non-volatile memory cell of a neural network, comprising: an operational amplifier (5201, 5301) comprising a first input terminal, a second input terminal, and an output terminal, the first input terminal receiving a reference voltage; a first resistor (5203, 5303) comprising a first end coupled to the second input terminal of the operational amplifier and a second end to receive an input voltage; a second resistor (5202, 5302) coupled to the second input terminal of the operational amplifier and the output terminal of the operational amplifier; wherein one of the first resistor and the second resistor is a variable resistor; and a resistance trim circuit network; characterized by the output terminal outputs a programming voltage (HVOUT) generated by applying a gain to the input voltage where the gain varies in response to an adjustment to the resistance of the variable resistor by the resistance trim circuit network and is used to program the non-volatile memory cell. an operational amplifier (5201, 5301) comprising a first input terminal, a second input terminal, and an output terminal, the first input terminal receiving a reference voltage; a first resistor (5203, 5303) comprising a first end coupled to the second input terminal of the operational amplifier and a second end to receive an input voltage; a second resistor (5202, 5302) coupled to the second input terminal of the operational amplifier and the output terminal of the operational amplifier; wherein one of the first resistor and the second resistor is a variable resistor; and a resistance trim circuit network; characterized by the output terminal outputs a programming voltage (HVOUT) generated by applying a gain to the input voltage where the gain varies in response to an adjustment to the resistance of the variable resistor by the resistance trim circuit network and is used to program the non-volatile memory cell.
Divider device for an aircraft cabin comprising: a plurality of elongate bar elements (1, 1', 1"), wherein each bar element (1, 1', 1") is planar and flexible so that it may assume a linear state in which it extends rectilinearly along a longitudinal axis parallel to a plane, wherein each bar element (1, 1', 1") has a first stable state in which it is curved, so that it deforms into its first stable state when being bent out of the linear state towards the first stable state to a predetermined extent, wherein the bar elements (1, 1', 1") are arranged side-by-side and adjacent bar elements (1, 1', 1") are pivotably interconnected with each other, so that when the bar elements (1, 1', 1") are in the linear state, their longitudinal axes extend in parallel, and wherein each pair of first and second adjacent bar elements (1', 1") are designed such that when the first and the second bar elements (1', 1") are in the linear state and extend in a common plane, in the first stable state of the first bar element one end thereof is positioned on a first side of the plane whereas in the first stable state of the second bar element (1") its end (9") corresponding to the end of the first bar element is located on a second side of the plane opposite the first side. a plurality of elongate bar elements (1, 1', 1"), wherein each bar element (1, 1', 1") is planar and flexible so that it may assume a linear state in which it extends rectilinearly along a longitudinal axis parallel to a plane, wherein each bar element (1, 1', 1") has a first stable state in which it is curved, so that it deforms into its first stable state when being bent out of the linear state towards the first stable state to a predetermined extent, wherein the bar elements (1, 1', 1") are arranged side-by-side and adjacent bar elements (1, 1', 1") are pivotably interconnected with each other, so that when the bar elements (1, 1', 1") are in the linear state, their longitudinal axes extend in parallel, and wherein each pair of first and second adjacent bar elements (1', 1") are designed such that when the first and the second bar elements (1', 1") are in the linear state and extend in a common plane, in the first stable state of the first bar element one end thereof is positioned on a first side of the plane whereas in the first stable state of the second bar element (1") its end (9") corresponding to the end of the first bar element is located on a second side of the plane opposite the first side.
An integrase-defective lentiviral (IDLV) donor polynucleotide comprising between the lentivirus LTRs, first and second homology arms that are homologous sequences to a region of interest of cellular chromatin of a mammalian cell; and an exogenous sequence comprising a gene of interest to be introduced into the cell such that it is integrated into the genome of the cell in the region of interest, the gene of interest comprising a sequence encoding a polypeptide; wherein the donor polynucleotide is selected from the group consisting of: (i) a donor polynucleotide comprising a gene of interest flanked by the first and second homologous sequences and a selectable marker outside the first and second homologous sequences; (ii) a donor polynucleotide comprising a gene of interest and a first selectable marker flanked by the first and second homologous sequences and a second selectable marker outside the first and second homologous sequences; (iii) a donor polynucleotide comprising a gene of interest and a first selectable marker outside the first and second homologous sequences; and (iv) a donor polynucleotide comprising a gene of interest and a selectable marker flanked by the first and second homologous sequences. (i) a donor polynucleotide comprising a gene of interest flanked by the first and second homologous sequences and a selectable marker outside the first and second homologous sequences; (ii) a donor polynucleotide comprising a gene of interest and a first selectable marker flanked by the first and second homologous sequences and a second selectable marker outside the first and second homologous sequences; (iii) a donor polynucleotide comprising a gene of interest and a first selectable marker outside the first and second homologous sequences; and (iv) a donor polynucleotide comprising a gene of interest and a selectable marker flanked by the first and second homologous sequences.
A cross-type tree skirt stand, comprising a plurality of tree skirt stand units that are engageable with each other, each tree skirt stand unit being formed of two fixation bars that are rotatably connected to each other, an insertion member and an insertion slot being respectively connected to each ends of each of the two fixation bars, and the two fixation bars of each tree skirt unit are arranged head to toe, the insertion members and the insertion slots of a tree skirt stand unit being engageable with the insertion members and the insertion slots of an adjacent tree skirt unit, a tree skirt fixation member being connected to a side wall of each insertion slot and one of the fixation bars of each tree skirt stand unit being provided with upper and lower retaining protrusions, such that a maximum rotation angle between the two fixation bars of each tree skirt stand unit may be retained and such that when the two fixation bars of each tree skirt stand unit are rotated to the maximum rotation angle, the insertion slots and the insertion members on the two sides are in a horizontal state.
A pharmaceutical homeopathic medicinal product for use in weight reduction, comprising the following medically active constituents and components with the respective potentisations: - 1 part Cactus grandiflorus, in 15X dilution, - 1 part Berberis aquifolium, in 8X dilution, - 1 part Capsicum, in 6X dilution, - 1 part Graphites, in 12X dilution, - 2 parts Fucus vesiculosus, in 6X dilution, - 1 part Fucus vesiculosus, in 8X dilution, - 1 part Helianthus tuberosus, in 6X dilution, - 1 part Kalium chloratum, in 6X dilution and - 1 part Natrum phosphoricum, in 6X dilution. - 1 part Cactus grandiflorus, in 15X dilution, - 1 part Berberis aquifolium, in 8X dilution, - 1 part Capsicum, in 6X dilution, - 1 part Graphites, in 12X dilution, - 2 parts Fucus vesiculosus, in 6X dilution, - 1 part Fucus vesiculosus, in 8X dilution, - 1 part Helianthus tuberosus, in 6X dilution, - 1 part Kalium chloratum, in 6X dilution and - 1 part Natrum phosphoricum, in 6X dilution.
A method of enrobing a product portion in polymer strands comprising directing a plurality of polymeric fibers from a polymer spray head in an upward direction to create an polymer enrobing zone above said polymer spray head; levitating at least one product portion in said polymer enrobing zone such that a plurality of polymeric fibers wrap around said at least one product portion. directing a plurality of polymeric fibers from a polymer spray head in an upward direction to create an polymer enrobing zone above said polymer spray head; levitating at least one product portion in said polymer enrobing zone such that a plurality of polymeric fibers wrap around said at least one product portion.
A communication device comprising: a directional antenna having a directional radiation pattern for directing greater power of a transmitted signal in a specific direction; and a control circuit coupled to the directional antenna, the control circuit determining an angle and a distance to another device, and based on the determined distance and angle to the another device, selecting a security level from a plurality of security levels for communication between the device and the another device, wherein the directional antenna comprises an array of antenna elements for controlling a direction of the transmitted signal, wherein said security levels belong to different security zones organized as pie-shaped sectors that are bounded by a distance and by a predetermined angle away from a centerline of the array of antenna elements, and wherein selecting the security level comprises determining the location of the another device based on the determined distance and angle to the another device, selecting one of said security zones based on said location, and selecting the security level which belongs to the selected security zone. a directional antenna having a directional radiation pattern for directing greater power of a transmitted signal in a specific direction; and a control circuit coupled to the directional antenna, the control circuit determining an angle and a distance to another device, and based on the determined distance and angle to the another device, selecting a security level from a plurality of security levels for communication between the device and the another device, wherein the directional antenna comprises an array of antenna elements for controlling a direction of the transmitted signal, wherein said security levels belong to different security zones organized as pie-shaped sectors that are bounded by a distance and by a predetermined angle away from a centerline of the array of antenna elements, and wherein selecting the security level comprises determining the location of the another device based on the determined distance and angle to the another device, selecting one of said security zones based on said location, and selecting the security level which belongs to the selected security zone.