mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a metallic container , comprising: forming a container body in a preferred shape, said container body comprised of a bottom portion , a sidewall portion , a neck portion extending upwardly from said sidewall portion, and an opening positioned on an uppermost portion of said neck portion ; characterized by inserting a threaded closure into said opening of said neck portion , said threaded closure comprised of a closure body adapted to be inserted at least partially into said opening of said neck portion , said closure body having closure threads formed on at least a portion of an outer surface of said closure body ; forming container threads on at least a portion of said neck portion of said container body by applying a force against an exterior surface of said neck portion to compress said portion of said neck portion against said threaded closure , wherein said threaded closure is removably interconnected to said neck portion of said container body. forming a container body in a preferred shape, said container body comprised of a bottom portion , a sidewall portion , a neck portion extending upwardly from said sidewall portion, and an opening positioned on an uppermost portion of said neck portion ; characterized by inserting a threaded closure into said opening of said neck portion , said threaded closure comprised of a closure body adapted to be inserted at least partially into said opening of said neck portion , said closure body having closure threads formed on at least a portion of an outer surface of said closure body ; forming container threads on at least a portion of said neck portion of said container body by applying a force against an exterior surface of said neck portion to compress said portion of said neck portion against said threaded closure , wherein said threaded closure is removably interconnected to said neck portion of said container body.
A method for the coalescing of oil droplets, characterized in processing oil-containing water through an oil coalescing granulated media product arranged as a depth filter, the oil coalescing granulated media product characterized in that on the surface of the product superhydrophobic and super-oleophobic permanently chemical crosslinked bonds between a fluorsiloxan and metal oxides are applied, where after the media post being arranged in a filter composition, are wetted with a surface active liquid and made hydrophilic, where the wetting agent is an alcohol, where after the media is rinsed with water, where after the media is arranged as coalescing media in a process water flow having modified hydrophilic and oleophobic properties, but wherein affinity for gas bubbles are obtained as if the media was hydrophobic characterized in that in front of the coalizing filter media, submicron gas bubbles are injected /introduced which homogeneously is mixed in the water phase for attachment at or in oil droplets, after which gas is coalited by processing through the product by the presence of gas affinity in the medium, whereby the gas bubble coalescence catalyses and promotes a coalescence of oil drops, after which gas is coalesced when processing through the product by the presence of gas affinity in the medium, whereby the gas bubble coalescence catalyses and promotes a coalescence of oil droplets.
A method of fabricating a glass ribbon comprising the steps of: providing a source of the glass ribbon with a pair of opposed edge portions and a central portion laterally spanning between the opposed edge portions; traversing the glass ribbon into a cutting zone bending the glass ribbon in the cutting zone to provide a bent target segment with a bent orientation in the cutting zone; severing at least one of the edge portions from the central portion of the bent target segment with the bent orientation within the cutting zone; and supporting the bend target segment with a curved air bar while severing at least one of the edge portions from the central portion of the bent target segment within the cutting zone; Wherein during the step of bending the glass ribbon in the cutting zone, the glass ribbon is bent such that the bent orientation of the target segment includes an upwardly facing convex or concave surface. providing a source of the glass ribbon with a pair of opposed edge portions and a central portion laterally spanning between the opposed edge portions; traversing the glass ribbon into a cutting zone bending the glass ribbon in the cutting zone to provide a bent target segment with a bent orientation in the cutting zone; severing at least one of the edge portions from the central portion of the bent target segment with the bent orientation within the cutting zone; and supporting the bend target segment with a curved air bar while severing at least one of the edge portions from the central portion of the bent target segment within the cutting zone; Wherein during the step of bending the glass ribbon in the cutting zone, the glass ribbon is bent such that the bent orientation of the target segment includes an upwardly facing convex or concave surface.
Shading with a rotationally mounted canvas shaft from which a canvas can be unwound, wherein a side forming the base side of the canvas is fastened on the canvas shaft , characterised in that on edges of the shading extending in extension direction are disposed tensioning means oriented in extension direction , wherein the tensioning means are formed in each case by a hose, in particular by a woven hose, which lies down flat during winding up onto the canvas shaft and being under tension presents itself upright having a circular cross-section.
An infra-red (IR) detector array device comprising: a semiconductor substrate comprising an etched portion; at least two dielectric membranes formed on the semiconductor substrate ; an array of IR detectors comprising at least two IR detectors, wherein said array of IR detectors are formed on or within said at least two dielectric membranes ; and wherein a first IR detector of the array of IR detectors is formed on or within a first dielectric membrane and wherein a second IR detector of the array of IR detectors is formed on or within a second dielectric membrane ; and at least one patterned layer formed within or on at least one of said dielectric membranes for controlling the IR absorption of at least one of the said IR detectors, and wherein said at least one patterned layer comprises laterally spaced structures; and wherein said at least one patterned layer is located above one of the at least two IR detectors so that said at least one patterned layer is associated with one of the at least two IR detectors, and further comprising circuitry formed on the same chip with said array of IR detectors, wherein the circuitry comprises analogue circuitry to improve spectral selectivity by processing the outputs from each individual IR detector within the array; and wherein the circuitry comprises a differential amplifier to determine the differential signal between two IR detectors to extract the difference in a spectral response. a semiconductor substrate comprising an etched portion; at least two dielectric membranes formed on the semiconductor substrate ; an array of IR detectors comprising at least two IR detectors, wherein said array of IR detectors are formed on or within said at least two dielectric membranes ; and wherein a first IR detector of the array of IR detectors is formed on or within a first dielectric membrane and wherein a second IR detector of the array of IR detectors is formed on or within a second dielectric membrane ; and at least one patterned layer formed within or on at least one of said dielectric membranes for controlling the IR absorption of at least one of the said IR detectors, and wherein said at least one patterned layer comprises laterally spaced structures; and wherein said at least one patterned layer is located above one of the at least two IR detectors so that said at least one patterned layer is associated with one of the at least two IR detectors, and further comprising circuitry formed on the same chip with said array of IR detectors, wherein the circuitry comprises analogue circuitry to improve spectral selectivity by processing the outputs from each individual IR detector within the array; and wherein the circuitry comprises a differential amplifier to determine the differential signal between two IR detectors to extract the difference in a spectral response.
Step for a staircase, having - a load-supporting step core , - an upper side , which forms a tread surface, - an underside , - a front end side , - a rear end side , wherein - the load-supporting step core consists of solid wood material, - an upper cover board layer is applied to the step core on the upper side , - a lower cover board layer is applied to the step core on the underside , - the upper and lower cover board layer consist of shrinkage- and swell-free material, - a laminate coating consisting of high-pressure laminate (HPL) is applied at least to the upper cover board layer , characterized in that - a front end cover layer , also termed gluing-on unit, which consists of shrinkage- and swell-free material, is applied to the step core on the front end side , - the upper outer edge of the front end cover layer takes the form of a post-formed rounded edge having a rounding radius (R), - a laminate coating consisting of high-pressure laminate (HPL) or continuous-pressure laminate (CPL) is applied to the front side of the front end cover layer . - a load-supporting step core , - an upper side , which forms a tread surface, - an underside , - a front end side , - a rear end side , wherein - the load-supporting step core consists of solid wood material, - an upper cover board layer is applied to the step core on the upper side , - a lower cover board layer is applied to the step core on the underside , - the upper and lower cover board layer consist of shrinkage- and swell-free material, - a laminate coating consisting of high-pressure laminate (HPL) is applied at least to the upper cover board layer , - a front end cover layer , also termed gluing-on unit, which consists of shrinkage- and swell-free material, is applied to the step core on the front end side , - the upper outer edge of the front end cover layer takes the form of a post-formed rounded edge having a rounding radius (R), - a laminate coating consisting of high-pressure laminate (HPL) or continuous-pressure laminate (CPL) is applied to the front side of the front end cover layer .
A fastener device for assembling a first part to a second part, the fastener device comprising: a female element that has a cavity extending in an axial direction presenting a tubular inside surface and that is for engaging on said first part, a male element that is in the shape of a rod for inserting axially into said cavity and that is for engaging on said second part, and retention means in the form of a U-shaped clamp that is inserted into a housing of said female element , passing transversely through said cavity , so as to pinch said male element and lock it axially in said cavity of said female element , the fastener device being characterized in that said retention means are provided with anti-twisting means that prevent the U-shape from twisting in the event of said male element being pulled outwards relative to said female element , the anti-twisting means comprising at least one first rib that projects in said axial direction from said branch of said U-shape inside said cavity and that comes into abutment against said tubular inside surface of said cavity , so as to prevent said branches of said U-shape from twisting during such pulling.
An angled coaxial electrical connector suitable for receiving a central conductor of a coaxial cable adapter , the connector comprising: a first conductive outer body portion having a first tubular portion disposed about a first axis , the first tubular portion defining a first bore; a second conductive outer body portion having a second tubular portion disposed about a second axis , the second axis intersecting the first axis, the second tubular portion defining a second bore , the second bore being configured to receive the coaxial cable adapter ; a central conductive pin secured within the first bore, the central conductive pin having a first end within the first conductive outer body portion and a second end outside of the first bore, the first end of the central conductive pin having an opening in a side wall thereof; and a coupling element disposed in the opening in the side wall of the central conductive pin and extending in a direction of the second axis , wherein the coupling element is configured to securely receive the central conductor of the adapter to facilitate the electrical connection between the central conductive pin and the central conductor , wherein the coupling element is configured to have a first diameter defined by a plurality of spring members in a rest position and a second diameter, greater than the first diameter, defined by an inner surface of a tubular wall of the coupling element when the spring members are urged outwardly, characterized by the fact that the plurality of spring members extend inward from the tubular wall of the coupling element . a first conductive outer body portion having a first tubular portion disposed about a first axis , the first tubular portion defining a first bore; a second conductive outer body portion having a second tubular portion disposed about a second axis , the second axis intersecting the first axis, the second tubular portion defining a second bore , the second bore being configured to receive the coaxial cable adapter ; a central conductive pin secured within the first bore, the central conductive pin having a first end within the first conductive outer body portion and a second end outside of the first bore, the first end of the central conductive pin having an opening in a side wall thereof; and a coupling element disposed in the opening in the side wall of the central conductive pin and extending in a direction of the second axis , wherein the coupling element is configured to securely receive the central conductor of the adapter to facilitate the electrical connection between the central conductive pin and the central conductor , wherein the coupling element is configured to have a first diameter defined by a plurality of spring members in a rest position and a second diameter, greater than the first diameter, defined by an inner surface of a tubular wall of the coupling element when the spring members are urged outwardly, characterized by the fact that the plurality of spring members extend inward from the tubular wall of the coupling element .
A system for detecting inclusions in a gemstone, comprising: (a) an illumination system configured to selectively illuminate each of a plurality of spaced apart light entrance areas of the gemstone from corresponding illumination directions, and to provide a number of illumination patterns each defined by a unique combination of such light entrance areas illuminated simultaneously; (b) a controller configured to control said illumination system to successively produce illumination patterns each selected so as to simultaneously provide an internal uniform illumination of one or more predetermined light exit regions of the gemstone, wherein at least one of the one or more predetermined light exit regions comprises at least one facet of the gemstone; (c) an image acquisition device configured to capture images of the gemstone when illuminated by the illumination system as defined in item (b); and (d) an image processing system configured for processing said images and identifying inclusions based on non-uniformities in the internal illumination detected in said images. (a) an illumination system configured to selectively illuminate each of a plurality of spaced apart light entrance areas of the gemstone from corresponding illumination directions, and to provide a number of illumination patterns each defined by a unique combination of such light entrance areas illuminated simultaneously; (b) a controller configured to control said illumination system to successively produce illumination patterns each selected so as to simultaneously provide an internal uniform illumination of one or more predetermined light exit regions of the gemstone, wherein at least one of the one or more predetermined light exit regions comprises at least one facet of the gemstone; (c) an image acquisition device configured to capture images of the gemstone when illuminated by the illumination system as defined in item (b); and (d) an image processing system configured for processing said images and identifying inclusions based on non-uniformities in the internal illumination detected in said images.
A Dewar device for a watch , said device comprising: - a bracelet; - a casing including an enclosure wherein a case of said watch can be disposed so that a crystal of said case is arranged opposite a crystal of said casing ; - at least one fastening device fastening said watch case in said enclosure of the casing by keeping it remote from all the elements of the casing defining this enclosure , and - a device for actuating at least one push button of said watch by rotating a pivoting bezel of said casing . - a bracelet; - a casing including an enclosure wherein a case of said watch can be disposed so that a crystal of said case is arranged opposite a crystal of said casing ; - at least one fastening device fastening said watch case in said enclosure of the casing by keeping it remote from all the elements of the casing defining this enclosure , and - a device for actuating at least one push button of said watch by rotating a pivoting bezel of said casing .
A method for charging raw materials into a blast furnace, the blast furnace including a bell-less charging device that includes a plurality of main hoppers and an auxiliary hopper at a furnace top portion, the auxiliary hopper having a smaller capacity than the main hoppers, the method comprising discharging ore (x) charged in at least one of the plurality of main hoppers , the ore (x) having a JIS reducibility index, RI, measured by using the reducibility testing method specified in JIS M 8713, of greater than 550, and then sequentially charging the ore (x) from a furnace wall side toward a furnace center side by using a rotating chute , wherein discharging of low-reactivity ore (y) charged in the auxiliary hopper is started simultaneously with a start of charging of the ore (x) or at a point in time after the start of the charging, the low-reactivity ore (y) having a JIS reducibility index, RI, of 55% or less, and then the low-reactivity ore (y) is charged together with the ore (x) from the rotating chute ; and charging of the low-reactivity ore (y) is stopped at least before a point in time at which charging of 56 mass% of the ore (x) is completed based on a total amount of the ore (x) to be charged per batch. the method comprising discharging ore (x) charged in at least one of the plurality of main hoppers , the ore (x) having a JIS reducibility index, RI, measured by using the reducibility testing method specified in JIS M 8713, of greater than 550, and then sequentially charging the ore (x) from a furnace wall side toward a furnace center side by using a rotating chute , wherein discharging of low-reactivity ore (y) charged in the auxiliary hopper is started simultaneously with a start of charging of the ore (x) or at a point in time after the start of the charging, the low-reactivity ore (y) having a JIS reducibility index, RI, of 55% or less, and then the low-reactivity ore (y) is charged together with the ore (x) from the rotating chute ; and charging of the low-reactivity ore (y) is stopped at least before a point in time at which charging of 56 mass% of the ore (x) is completed based on a total amount of the ore (x) to be charged per batch.
A method of controlling a water purifier by a control unit of the water purifier , the method comprising: (a) flushing a filtration side of a reverse osmosis filter of a filter unit of the water purifier before water is discharged in step (b), wherein the reverse osmosis filter includes a reverse osmosis membrane (MB) for filtering water such that the reverse osmosis filter is partitioned into a non-filtration side and the filtration side ; (b) discharging water filtered by the filter unit to the outside through a water outlet member of a water outlet unit of the water purifier connected to the filter unit ; and (c) flushing the non-filtration side after water is discharged in step (b). (a) flushing a filtration side of a reverse osmosis filter of a filter unit of the water purifier before water is discharged in step (b), wherein the reverse osmosis filter includes a reverse osmosis membrane (MB) for filtering water such that the reverse osmosis filter is partitioned into a non-filtration side and the filtration side ; (b) discharging water filtered by the filter unit to the outside through a water outlet member of a water outlet unit of the water purifier connected to the filter unit ; and (c) flushing the non-filtration side after water is discharged in step (b).
A method of evaluating a condition of a printhead, said method comprising the steps of: (i) printing an image using the printhead; (ii) optically imaging at least part of the printed image and determining optical densities for a portion of the printed image; (iii) converting the optical densities into a one-dimensional signal; (iv) analyzing one or more portions of the signal using a convolutional neural network to generate a classification for corresponding portions of the signal; and (v) using each classification to evaluate the condition of corresponding portions of the printhead, wherein: the convolutional neural network is based on a set of training images from analyses of a plurality of printheads having a known condition; additional training images are acquired from a plurality of printers connected via a computer network; and the convolutional neural network is updated using the additional training images, thereby refining the method of evaluating the condition of the printhead. (i) printing an image using the printhead; (ii) optically imaging at least part of the printed image and determining optical densities for a portion of the printed image; (iii) converting the optical densities into a one-dimensional signal; (iv) analyzing one or more portions of the signal using a convolutional neural network to generate a classification for corresponding portions of the signal; and (v) using each classification to evaluate the condition of corresponding portions of the printhead, the convolutional neural network is based on a set of training images from analyses of a plurality of printheads having a known condition; additional training images are acquired from a plurality of printers connected via a computer network; and the convolutional neural network is updated using the additional training images, thereby refining the method of evaluating the condition of the printhead.