mhurhangee/patent-ind-claim-en huggingface dataset:
A method of laser reactive cutting a metal workpiece having a thickness of between 10 mm and 60 mm, the method comprising the steps of providing the workpiece having the thickness (t) of between 10 mm and 60 mm, of causing a laser beam to impinge on the workpiece while the laser beam is moved relative to the workpiece and while a cutting gas containing oxygen is ejected from a laser machining nozzle and is thereby directed onto a position of incidence of the laser beam on the workpiece, characterized in that a focal position of the laser beam is at a distance (a f ) of between 10 mm and 30 mm from the workpiece , and in that the laser beam has a power of at least 5 kW.
A method for producing a trim part for vehicles using an injection mold comprising the steps: a. Creating a carrier substrate in a tool cavity of the injection mold from a first plastic material; b. Injection molding a lost seal from a second plastic material along an edge section of the carrier substrate positioned at a distance to an edge of the carrier substrate , such that the edge of the carrier substrate is exposed, wherein the second plastic material is different from the first plastic material and is designed to form a detachable bond with the first plastic material; c. Generating a sealing cavity between the carrier substrate and a tool component of the injection mold ; d. Inserting a surface cover layer into the sealing cavity on the carrier substrate , said cover layer reaching behind the edge of said substrate; e. Opening the injection mold and removing the trim part , wherein the lost seal is removed from the carrier substrate . a. Creating a carrier substrate in a tool cavity of the injection mold from a first plastic material; b. Injection molding a lost seal from a second plastic material along an edge section of the carrier substrate positioned at a distance to an edge of the carrier substrate , such that the edge of the carrier substrate is exposed, wherein the second plastic material is different from the first plastic material and is designed to form a detachable bond with the first plastic material; c. Generating a sealing cavity between the carrier substrate and a tool component of the injection mold ; d. Inserting a surface cover layer into the sealing cavity on the carrier substrate , said cover layer reaching behind the edge of said substrate; e. Opening the injection mold and removing the trim part , wherein the lost seal is removed from the carrier substrate .
A lightguide optical element (LOE) configured for polarization scrambling comprising: a transparent substrate having a first refractive index, the substrate comprising a pair of parallel external surfaces configured to propagate light within said LOE through total internal reflection (TIR), and a plurality of mutually parallel partially reflective internal surfaces , said plurality of mutually parallel partially reflective internal surfaces being non-parallel to the pair of parallel external surfaces and configured to couple out said light to a viewer; a first coating having a thickness between 100nm and 10 microns on at least one external surface of the substrate , the first coating comprising a coating material having a second refractive index higher than said first refractive index; and an antireflective (AR) coating on at least one external surface of the substrate over said first coating ; characterized in that the first coating is configured to increase a phase shift between s-polarized and p-polarized components of light incident at angles of above TIR having a wavelength between 400nm and 1300nm. a transparent substrate having a first refractive index, the substrate comprising a pair of parallel external surfaces configured to propagate light within said LOE through total internal reflection (TIR), and a plurality of mutually parallel partially reflective internal surfaces , said plurality of mutually parallel partially reflective internal surfaces being non-parallel to the pair of parallel external surfaces and configured to couple out said light to a viewer; a first coating having a thickness between 100nm and 10 microns on at least one external surface of the substrate , the first coating comprising a coating material having a second refractive index higher than said first refractive index; and an antireflective (AR) coating on at least one external surface of the substrate over said first coating ; characterized in that the first coating is configured to increase a phase shift between s-polarized and p-polarized components of light incident at angles of above TIR having a wavelength between 400nm and 1300nm.
A method of processing data flows, the method comprising: receiving a data flow which includes N data samples of a first antenna carrier having a higher sampling rate and n data samples, where n is less than N, of another antenna carrier having a lower sampling rate than that of the first antenna carrier; padding the n data samples with z zeros, where z = N-n, to produce N padded samples; performing a first inverse Fourier transform operation on said N data samples to produce N inverse Fourier transformed samples and transferring the N inverse Fourier transformed samples to a memory ; performing a second inverse Fourier transform operation on said N padded samples to produce N inverse transformed padded samples and transferring the N inverse transformed padded samples to the memory ; transferring the N inverse Fourier transformed samples and the N inverse transformed padded samples from the memory onto a communications link for onward transmission by performing a single bandwidth direct memory access, DMA, operation, wherein the communications link has a frame structure and wherein the N inverse Fourier transformed samples are contained within a first Antenna Carrier, AxC, container and the N inverse Fourier transformed padded samples are contained within a second AxC container and comprise n data samples interleaved with z interpolated samples. receiving a data flow which includes N data samples of a first antenna carrier having a higher sampling rate and n data samples, where n is less than N, of another antenna carrier having a lower sampling rate than that of the first antenna carrier; padding the n data samples with z zeros, where z = N-n, to produce N padded samples; performing a first inverse Fourier transform operation on said N data samples to produce N inverse Fourier transformed samples and transferring the N inverse Fourier transformed samples to a memory ; performing a second inverse Fourier transform operation on said N padded samples to produce N inverse transformed padded samples and transferring the N inverse transformed padded samples to the memory ; transferring the N inverse Fourier transformed samples and the N inverse transformed padded samples from the memory onto a communications link for onward transmission by performing a single bandwidth direct memory access, DMA, operation, wherein the communications link has a frame structure and wherein the N inverse Fourier transformed samples are contained within a first Antenna Carrier, AxC, container and the N inverse Fourier transformed padded samples are contained within a second AxC container and comprise n data samples interleaved with z interpolated samples.
A water-based fragrance composition consisting of: a) at least 67 wt% water; b) between 5 and 17 wt% of a first organic solvent, wherein the first organic solvent comprises one or more relatively volatile, water soluble, low molecular weight organic compound(s) having a boiling point less than 100 °C, wherein the relatively volatile, water soluble, low molecular weight organic compound(s) is selected from the group consisting of: ethanol, isopropanol, acetone, or combinations thereof; c) 5 wt% or less of at least one fragrance formulation; d) up to 22 wt% of a second organic solvent, wherein the second organic solvent comprises one or more moderately volatile, water soluble organic compound(s) having a boiling point greater than or equal to 100 °C and less than or equal to 300 °C, wherein the moderately volatile water soluble organic compound(s) is selected from the group consisting of dipropylene glycol methyl ether; propylene glycol methyl ether; dipropylene glycol; propylene glycol; pentylene glycol; caprylyl glycol; 1,2-hexanediol; propylene glycol methyl ether acetate; dipropylene glycol methyl ether acetate; propylene glycol monopropyl ether; ethylene glycol mono n-propyl ether; propylene glycol monoethyl ether; diethylene glycol monobutyl ether; ethylene glycol monohexyl ether; dimethoxymethane; dimethylsulfoxide, acetonitrile; and combinations thereof; and e) optionally one or more pH adjuster; wherein the composition is free of any material with a boiling point greater than 300 °C. a) at least 67 wt% water; b) between 5 and 17 wt% of a first organic solvent, wherein the first organic solvent comprises one or more relatively volatile, water soluble, low molecular weight organic compound(s) having a boiling point less than 100 °C, wherein the relatively volatile, water soluble, low molecular weight organic compound(s) is selected from the group consisting of: ethanol, isopropanol, acetone, or combinations thereof; c) 5 wt% or less of at least one fragrance formulation; d) up to 22 wt% of a second organic solvent, wherein the second organic solvent comprises one or more moderately volatile, water soluble organic compound(s) having a boiling point greater than or equal to 100 °C and less than or equal to 300 °C, wherein the moderately volatile water soluble organic compound(s) is selected from the group consisting of dipropylene glycol methyl ether; propylene glycol methyl ether; dipropylene glycol; propylene glycol; pentylene glycol; caprylyl glycol; 1,2-hexanediol; propylene glycol methyl ether acetate; dipropylene glycol methyl ether acetate; propylene glycol monopropyl ether; ethylene glycol mono n-propyl ether; propylene glycol monoethyl ether; diethylene glycol monobutyl ether; ethylene glycol monohexyl ether; dimethoxymethane; dimethylsulfoxide, acetonitrile; and combinations thereof; and e) optionally one or more pH adjuster;
A portable exercise device , comprising: a first horizontal bar with a first end and a second end; a first neck attached to the first end; a second neck attached to the second end; a first vertical column for receiving the first neck, wherein the first neck is movable within the first vertical column to alter the vertical height of the first horizontal bar; a second vertical column for receiving the second neck, wherein the second neck is movable within the second vertical column to alter the vertical height of the first horizontal bar; a second horizontal bar attached to a point near the top of the first vertical column and to a point near the top of the second vertical column ; a third horizontal bar coupled to the first vertical column and the second vertical column ; a first leg attached to the first vertical column; a second leg attached to the second vertical column; a backboard attached to the second horizontal bar and the third horizontal bar; and a floorboard attached to the backboard with a hinge ; and a mat comprising a pocket to receive the floorboard. a first horizontal bar with a first end and a second end; a first neck attached to the first end; a second neck attached to the second end; a first vertical column for receiving the first neck, wherein the first neck is movable within the first vertical column to alter the vertical height of the first horizontal bar; a second vertical column for receiving the second neck, wherein the second neck is movable within the second vertical column to alter the vertical height of the first horizontal bar; a second horizontal bar attached to a point near the top of the first vertical column and to a point near the top of the second vertical column ; a third horizontal bar coupled to the first vertical column and the second vertical column ; a first leg attached to the first vertical column; a second leg attached to the second vertical column; a backboard attached to the second horizontal bar and the third horizontal bar; and a floorboard attached to the backboard with a hinge ; and a mat comprising a pocket to receive the floorboard.
An aerosol generating device comprising: a heater configured to heat an aerosol generating material; and a controller configured to: calculate a first power amount indicating a power amount used by the heater during a preset first time period after a heating operation of the heater is started, and control the heating operation of the heater based on whether the first power amount is greater than or equal to a preset reference power amount. a heater configured to heat an aerosol generating material; and a controller configured to: calculate a first power amount indicating a power amount used by the heater during a preset first time period after a heating operation of the heater is started, and control the heating operation of the heater based on whether the first power amount is greater than or equal to a preset reference power amount. calculate a first power amount indicating a power amount used by the heater during a preset first time period after a heating operation of the heater is started, and control the heating operation of the heater based on whether the first power amount is greater than or equal to a preset reference power amount.
Method for providing a metallic or concrete surface of a chemical installation with a coating, which comprises the steps of - providing a two-pack coating composition wherein the first pack comprises an epoxy resin and the second pack comprises an amine curing agent for the epoxy resin, the coating composition further comprising an organoboron compound of the formula BX1X2X3, wherein X1, X2, and X3 are independently selected from -Y1 and -OY2, wherein Y1 is independently selected from monovalent C1-C12 alkyl groups and monovalent C6-C12 aryl groups, and Y2 is independently selected from monovalent C1-C12 alkyl groups and monovalent C6-C12 aryl groups, and wherein at least one of X1, X2, and X3 is an -OY2 group, - combining the first pack and the second pack to form a coating composition, - applying the coating composition to the surface of a chemical installation to form a coating layer, and - allowing the coating layer to cure at a temperature in the range of 0 to 50°C. - providing a two-pack coating composition wherein the first pack comprises an epoxy resin and the second pack comprises an amine curing agent for the epoxy resin, the coating composition further comprising an organoboron compound of the formula BX1X2X3, wherein X1, X2, and X3 are independently selected from -Y1 and -OY2, wherein Y1 is independently selected from monovalent C1-C12 alkyl groups and monovalent C6-C12 aryl groups, and Y2 is independently selected from monovalent C1-C12 alkyl groups and monovalent C6-C12 aryl groups, and wherein at least one of X1, X2, and X3 is an -OY2 group, - combining the first pack and the second pack to form a coating composition, - applying the coating composition to the surface of a chemical installation to form a coating layer, and - allowing the coating layer to cure at a temperature in the range of 0 to 50°C.
Loading system for lifting and emptying a container into a collector, the loading system comprising: - a mounting frame which can be mounted on the collector with coupling means; - a lifting mechanism arranged on the mounting frame for the purpose of picking up and lifting the container , the lifting mechanism comprising: - a drive frame connected rotatably to the mounting frame ; - a tilting frame connected rotatably to the drive frame ; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame , such that the tilting frame rotates around the drive frame ; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame ; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container , wherein the tilting rotation point is moved in an upward direction during lifting and emptying of the container , characterised in that the lifting mechanism further comprises a lifting connecting arm connected between the tilting frame and the lifting seat for a controlled movement of the lifting seat relative to the tilting frame . - a mounting frame which can be mounted on the collector with coupling means; - a lifting mechanism arranged on the mounting frame for the purpose of picking up and lifting the container , the lifting mechanism comprising: - a drive frame connected rotatably to the mounting frame ; - a tilting frame connected rotatably to the drive frame ; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame , such that the tilting frame rotates around the drive frame ; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame ; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container , - a drive frame connected rotatably to the mounting frame ; - a tilting frame connected rotatably to the drive frame ; - a drive connected operatively to the drive frame and configured to rotate the drive frame relative to the mounting frame , such that the tilting frame rotates around the drive frame ; - at least one tilting arm connected operatively to the tilting frame and configured to rotate around a tilting rotation point of the at least one tilting arm relative to the tilting frame ; and - a lifting seat connected operatively to the at least one tilting arm for the purpose of picking up the container , wherein the tilting rotation point is moved in an upward direction during lifting and emptying of the container , characterised in that the lifting mechanism further comprises a lifting connecting arm connected between the tilting frame and the lifting seat for a controlled movement of the lifting seat relative to the tilting frame .
A method comprising layering different types of composite material in an inner chamber of an open top drum to form a layered composite material; compressing the layered composite material in the inner chamber of the open top drum to form a layered compressed composite material; stirring the layered compressed composite material in the inner chamber of the open top drum in order to break the layered compressed composite material into different sized fragments and develop a marbleized pattern forming a fragmented composite marbleized material; and compressing again the fragmented composite marbleized material in the inner chamber of the open top drum in order to further reinforce the marbleized pattern within the fragmented composite marbleized material.
Appliance- and anti-vibration mount for mounting an appliance , a unit or an installation, comprising - a first fastening plate , - a second fastening plate , - a damping body held on connecting surfaces between the first fastening plate and the second fastening plate , wherein - the first and second fastening plate have force introduction surfaces which are aligned in parallel with and laterally offset from one another, wherein - one or more recesses are provided in the damping body , which recesses each open into a fastening opening of one of the fastening plates and are formed by cylindrical cut-outs aligned in parallel with the fastening direction, wherein - at least two recesses are provided, and - a first recess opens into the fastening opening of the first fastening plate , and - a second recess opens into the fastening opening of the second fastening plate , and - the first and second recess are arranged on different sides of the damping body , characterized in that the cylindrical cut-outs extend, starting from the free surfaces of the damping body which are inclined with respect to the fastening directions, through the damping body as far as the connecting surfaces of the first and second fastening plate , wherein - the cylindrical cut-outs are arranged coaxially with the fastening openings and overlap perpendicularly to the longitudinal axes thereof. - a first fastening plate , - a second fastening plate , - a damping body held on connecting surfaces between the first fastening plate and the second fastening plate , wherein - the first and second fastening plate have force introduction surfaces which are aligned in parallel with and laterally offset from one another, wherein - one or more recesses are provided in the damping body , which recesses each open into a fastening opening of one of the fastening plates and are formed by cylindrical cut-outs aligned in parallel with the fastening direction, wherein - at least two recesses are provided, and - a first recess opens into the fastening opening of the first fastening plate , and - a second recess opens into the fastening opening of the second fastening plate , and - the first and second recess are arranged on different sides of the damping body , characterized in that the cylindrical cut-outs extend, starting from the free surfaces of the damping body which are inclined with respect to the fastening directions, through the damping body as far as the connecting surfaces of the first and second fastening plate , wherein - the cylindrical cut-outs are arranged coaxially with the fastening openings and overlap perpendicularly to the longitudinal axes thereof.
An isolated primer oligonucleotide comprising from 5' to 3', i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and said nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule to form a double-stranded primer-target hybrid having a ΔG that is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer, wherein the second region comprises at the 3' end one or more 2' modified nucleotides. i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and said nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule to form a double-stranded primer-target hybrid having a ΔG that is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer, wherein the second region comprises at the 3' end one or more 2' modified nucleotides.