mhurhangee/patent-ind-claim-en huggingface dataset:
A spectacle wearing parameter measurement device for a measurement of a spectacle wearing parameter of a subject who is to wear a spectacle frame, the spectacle wearing parameter measurement device comprising: an information processing unit configured to acquire each of a first image as a face image of the subject in a spectacle-frame wearing state and a second image as a face image in a spectacle-frame non-wearing state and configured to prepare a third image obtained by associating the first image and the second image ; a display screen unit configured to display the third image prepared by the information processing unit; an operation unit configured to specify a measurement reference point of the spectacle wearing parameter on the third image displayed on the display screen unit ; and a computation unit configured to calculate the spectacle wearing parameter (FVD) by using data of the specified measurement reference point, wherein the preparation of the third image further comprises replacing a corresponding region in the second image in the spectacle-frame non-wearing state with a partial region in the first image in the spectacle-frame wearing state, wherein the partial region is a region including a rim part of the spectacle frame worn by the subject on the first image , and wherein the corresponding region is a region not including an eyeball corneal part of the subject on the second image . an information processing unit configured to acquire each of a first image as a face image of the subject in a spectacle-frame wearing state and a second image as a face image in a spectacle-frame non-wearing state and configured to prepare a third image obtained by associating the first image and the second image ; a display screen unit configured to display the third image prepared by the information processing unit; an operation unit configured to specify a measurement reference point of the spectacle wearing parameter on the third image displayed on the display screen unit ; and a computation unit configured to calculate the spectacle wearing parameter (FVD) by using data of the specified measurement reference point, wherein the preparation of the third image further comprises replacing a corresponding region in the second image in the spectacle-frame non-wearing state with a partial region in the first image in the spectacle-frame wearing state, wherein the partial region is a region including a rim part of the spectacle frame worn by the subject on the first image , and wherein the corresponding region is a region not including an eyeball corneal part of the subject on the second image .
A method for automatic mapping and handling noise and interference in a distributed antenna system, DAS, the method comprising: (a) measuring any noise and interference in one or more uplink channels of the DAS when all downlink channels of the DAS are not transmitting, comparing any measured noise and interference from step (a) to a corresponding desired noise level, wherein the corresponding desired noise level is determined by an initial DAS layout design of uplink channels of the DAS; (b) measuring any noise and interference in one or more of the uplink channels of the DAS when one or more of the downlink channels of the DAS are active in a zero traffic mode, comparing any measured noise and interference from step (b) to the corresponding desired noise level; and (c) measuring any noise and interference in one or more of the uplink channels of the DAS when one or more of the downlink channels of the DAS are fully operational, comparing any measured noise and interference from step (c) to the corresponding desired noise level and the noise and interference measured in step (a); and to the zero traffic mode noise and interference measured in step (b); wherein the comparing from any of steps (a), (b) or (c), generates a noise and interference report. (a) measuring any noise and interference in one or more uplink channels of the DAS when all downlink channels of the DAS are not transmitting, comparing any measured noise and interference from step (a) to a corresponding desired noise level, wherein the corresponding desired noise level is determined by an initial DAS layout design of uplink channels of the DAS; (b) measuring any noise and interference in one or more of the uplink channels of the DAS when one or more of the downlink channels of the DAS are active in a zero traffic mode, comparing any measured noise and interference from step (b) to the corresponding desired noise level; and (c) measuring any noise and interference in one or more of the uplink channels of the DAS when one or more of the downlink channels of the DAS are fully operational, comparing any measured noise and interference from step (c) to the corresponding desired noise level and the noise and interference measured in step (a); and to the zero traffic mode noise and interference measured in step (b);
A telescopic system having at least two profile rails (2; 2a; 2b) which are linearly guided against each other in the longitudinal direction (I) and which are moveable relative to each other over a distance and which each have a longitudinal profile having longitudinal grooves and/or longitudinal ribs and which are cut to a given length from a profile section, wherein fixed at each profile rail (2; 2a; 2b) is at least one sliding element , by way of which the at least two profile rails (2; 2a; 2b) bear slidingly displaceable against each other and which is arranged axially fixedly at least with respect to the longitudinal direction (I) of the longitudinal profile of the profile rails (2; 2a; 2b) associated therewith, wherein the sliding element is connected to a clamping element in non-displaceable relationship on the profile rail (2; 2a; 2b) at least with respect to a sliding plane (G) defined by the longitudinal direction (I) and a first transverse direction (q1) perpendicularly to the longitudinal direction (I), wherein the clamping element is arranged with a clamping fit on the longitudinal profile of the profile rail (2; 2a; 2b), more specifically in or at a longitudinal groove and/or on a longitudinal rib , and wherein for fixing the clamping element on the longitudinal profile and for fixing the sliding element to the respective profile rail (2; 2a; 2b) no further processing and structural modifications of the respective profile rail (2; 2a; 2b) is performed.
Device for flushing a container with a flushing medium, comprising a nozzle for introducing the flushing medium into the container to be flushed, wherein the nozzle has a media outlet through which the flushing medium enters into the container to be flushed, wherein the nozzle is guided displaceably in a guide and is displaceable between a retracted position for positioning the container and a position in which it is inserted into the container for flushing the container with the flushing medium, and an extraction unit for extracting at least a part of the flushing medium flowing back out of the container , characterised in that the guide is arranged between the media outlet of the nozzle and at least one region of the extraction unit .
A woven textile sleeve (110; 110'; 210; 210'; 310; 310'; 810) for routing and protecting elongate members , comprising: an elongate wall (112; 112'; 212; 212'; 312; 312'; 812) configured to bound a cavity extending a longitudinal central axis (18; 818) of the sleeve, said wall being woven with warp yarns extending parallel to said central longitudinal axis and fill yarns extending transversely to said warp yarns, said warp yarns being woven as discrete bundles of yarns, wherein each said discrete bundle of yarns includes a plurality of yarns arranged in side-by-side abutting relation with one another, with said yarns in each discrete bundle extending over and under the same said fill yarns with one another; wherein at least some of said discrete bundles include monofilaments; characterized in that at least one of said monofilaments within said discrete bundles has a larger diameter from other yarns within said discrete bundle. an elongate wall (112; 112'; 212; 212'; 312; 312'; 812) configured to bound a cavity extending a longitudinal central axis (18; 818) of the sleeve, said wall being woven with warp yarns extending parallel to said central longitudinal axis and fill yarns extending transversely to said warp yarns, said warp yarns being woven as discrete bundles of yarns, wherein each said discrete bundle of yarns includes a plurality of yarns arranged in side-by-side abutting relation with one another, with said yarns in each discrete bundle extending over and under the same said fill yarns with one another; wherein at least some of said discrete bundles include monofilaments; characterized in that at least one of said monofilaments within said discrete bundles has a larger diameter from other yarns within said discrete bundle.
A structure comprising a partly assembled wind turbine in the form of a structure comprising a wind turbine tower , a nacelle arranged thereon and a vibration damper attached to the nacelle for damping vibrations of the combined wind turbine tower and nacelle within a selected frequency range, characterized in that the vibration damper is operatively connected to a main shaft of the nacelle .
An on-line status diagnosis device for electric power utilities, which comprises a degradation detection sensor configured to provide a degradation detection signal as an electrical analog signal by detecting a degradation status of the electric power utilities, a data acquisition unit (2-1) configured to acquire and provide degradation detection data based on the degradation detection signal, and a communication unit configured to transmit the degradation detection data from the data acquisition unit to the outside of the on-line status diagnosis device, the data acquisition unit (2-1) comprises: an analog-digital converter configured to acquire degradation detection data as digital data by converting the degradation detection signal from the degradation detection sensor into a digital signal; characterized in that the data acquisition unit (2-1) further comprises a microcomputer configured to determine a degree of risk by comparing the degradation detection data with at least one predetermined risk determination reference value, if the degree of risk is high, output a control signal to the analog-digital converter to increase a sampling rate that is a number of sampling times of detection data per unit time in the analog-digital converter and also output the degradation detection data to quicken a report rate that is a time required to transmit data of a predetermined number, and if the degree of risk is low, output a control signal to the analog-digital converter to decrease the sampling rate of the analog-digital converter and also output the degradation detection data to decrease the report rate. an analog-digital converter configured to acquire degradation detection data as digital data by converting the degradation detection signal from the degradation detection sensor into a digital signal; characterized in that the data acquisition unit (2-1) further comprises a microcomputer configured to determine a degree of risk by comparing the degradation detection data with at least one predetermined risk determination reference value, if the degree of risk is high, output a control signal to the analog-digital converter to increase a sampling rate that is a number of sampling times of detection data per unit time in the analog-digital converter and also output the degradation detection data to quicken a report rate that is a time required to transmit data of a predetermined number, and if the degree of risk is low, output a control signal to the analog-digital converter to decrease the sampling rate of the analog-digital converter and also output the degradation detection data to decrease the report rate.
An air-cooled fuel cell comprising a corrugated cathode separator plate , the separator plate comprising: a series of airflow channels , each channel extending longitudinally between first and second opposing edges of the separator plate, the channels comprising a series of oxidant air supply channels and a series of cooling air supply channels on opposing faces of the corrugated separator plate, with the oxidant air supply channels being adjacent to a cathode diffuser of the fuel cell and open towards to the cathode diffuser and an underlying MEA of the fuel cell, each channel having a cross-sectional profile defining an airflow cross-section at points along the length of the channel, and at least selected ones of the channels each having one or more thermally conductive structures extending into the channel cross-section at selected intermediate longitudinal positions of the channel, the positions being disposed over an active area of the fuel cell, to locally enhance heat transfer from the active area via the plate to airflow moving through the channel, wherein the one or more thermally conductive structures extending into the channel cross-section are one or more bumps extending into the height or width of the channel cross-section; and, wherein the one or more thermally conductive structures extends into the channel cross-section only within the second longitudinal half of the channel. a series of airflow channels , each channel extending longitudinally between first and second opposing edges of the separator plate, the channels comprising a series of oxidant air supply channels and a series of cooling air supply channels on opposing faces of the corrugated separator plate, with the oxidant air supply channels being adjacent to a cathode diffuser of the fuel cell and open towards to the cathode diffuser and an underlying MEA of the fuel cell, each channel having a cross-sectional profile defining an airflow cross-section at points along the length of the channel, and at least selected ones of the channels each having one or more thermally conductive structures extending into the channel cross-section at selected intermediate longitudinal positions of the channel, the positions being disposed over an active area of the fuel cell, to locally enhance heat transfer from the active area via the plate to airflow moving through the channel, wherein the one or more thermally conductive structures extending into the channel cross-section are one or more bumps extending into the height or width of the channel cross-section; and, wherein the one or more thermally conductive structures extends into the channel cross-section only within the second longitudinal half of the channel.
A dental prosthesis system, for the use with at least two dental implants, characterized by comprising: the dental prosthesis, which is divided in two parts, comprises a first prosthetic part , with a mesial, distal, lingual and buccal faces, a top section and a bottom section, and a second prosthetic part , with a mesial, distal, lingual and buccal faces, a top section and a bottom section; and having a prosthetic screw , wherein the prosthetic screw joints the first prosthetic part and the second prosthetic part , and said prosthetic screw acts as a sacrificial element; and wherein the first prosthetic part is capable of being connected to the dental implants through at least two connectors , arranged in the bottom section of the first prosthetic part ; and having an engaging and guidance system, wherein the engaging and guiding system includes two female elements , disposed on the top section of the first prosthetic part , and two corresponding male elements , disposed on the bottom section of the second prosthetic part , whereby the connection between the two female elements and the two male elements is releasable. the dental prosthesis, which is divided in two parts, comprises a first prosthetic part , with a mesial, distal, lingual and buccal faces, a top section and a bottom section, and a second prosthetic part , with a mesial, distal, lingual and buccal faces, a top section and a bottom section; and having a prosthetic screw , wherein the prosthetic screw joints the first prosthetic part and the second prosthetic part , and said prosthetic screw acts as a sacrificial element; and wherein the first prosthetic part is capable of being connected to the dental implants through at least two connectors , arranged in the bottom section of the first prosthetic part ; and having an engaging and guidance system, wherein the engaging and guiding system includes two female elements , disposed on the top section of the first prosthetic part , and two corresponding male elements , disposed on the bottom section of the second prosthetic part , whereby the connection between the two female elements and the two male elements is releasable.
A method for analyzing a biological sample, comprising: (a) contacting the biological sample with a first reaction mixture, wherein: the biological sample comprises a circular nucleic acid comprising a hybridization region, the first reaction mixture comprises a polymerase, wherein the biological sample comprises cells or is a tissue sample, the circular nucleic acid or the polymerase is prebound to a polynucleotide comprising a sequence complementary to the hybridization region, and the polymerase activity of the polymerase is inhibited; and (b) contacting the biological sample with a second reaction mixture to allow the polymerase to extend the polynucleotide hybridized to the hybridization region using the circular nucleic acid as a template, wherein a rolling circle amplification product of the circular nucleic acid is generated in the biological sample. (a) contacting the biological sample with a first reaction mixture, wherein: the biological sample comprises a circular nucleic acid comprising a hybridization region, the first reaction mixture comprises a polymerase, wherein the biological sample comprises cells or is a tissue sample, the circular nucleic acid or the polymerase is prebound to a polynucleotide comprising a sequence complementary to the hybridization region, and the polymerase activity of the polymerase is inhibited; and the biological sample comprises a circular nucleic acid comprising a hybridization region, the first reaction mixture comprises a polymerase, wherein the biological sample comprises cells or is a tissue sample, the circular nucleic acid or the polymerase is prebound to a polynucleotide comprising a sequence complementary to the hybridization region, and the polymerase activity of the polymerase is inhibited; and (b) contacting the biological sample with a second reaction mixture to allow the polymerase to extend the polynucleotide hybridized to the hybridization region using the circular nucleic acid as a template,
A thermoplastic polycarbonate composition comprising: 10 to 30 wt% of a brominated polycarbonate; 10 to 80 wt% of a homopolycarbonate; optionally, 1 to 60 wt% of an aromatic poly(ester-carbonate) comprising carbonate units derived from bisphenol A, resorcinol, or a combination thereof, and ester units derived from a bisphenol, preferably bisphenol A, or resorcinol, and terephthalic acid, isoterephthalic acid, or a combination thereof, wherein a molar ratio of carbonate units to ester units ranges from 1:99 to 99: 1; 5 to 15 wt% of a core-shell impact modifier; 1 to 10 wt% of an α,β-unsaturated glycidyl ester copolymer impact modifier; 0.01 to 1 wt% of a hydrostabilizer, preferably an epoxy hydrostabilizer; optionally, 0.1 to 10 wt% of an additive composition; wherein the wt% of each component is based on the total weight of the composition, which totals 100 wt%. 10 to 30 wt% of a brominated polycarbonate; 10 to 80 wt% of a homopolycarbonate; optionally, 1 to 60 wt% of an aromatic poly(ester-carbonate) comprising carbonate units derived from bisphenol A, resorcinol, or a combination thereof, and ester units derived from a bisphenol, preferably bisphenol A, or resorcinol, and terephthalic acid, isoterephthalic acid, or a combination thereof, wherein a molar ratio of carbonate units to ester units ranges from 1:99 to 99: 1; 5 to 15 wt% of a core-shell impact modifier; 1 to 10 wt% of an α,β-unsaturated glycidyl ester copolymer impact modifier; 0.01 to 1 wt% of a hydrostabilizer, preferably an epoxy hydrostabilizer; optionally, 0.1 to 10 wt% of an additive composition; wherein the wt% of each component is based on the total weight of the composition, which totals 100 wt%.
A high strength polymer-based cartridge for subsonic ammunition comprising: a first end having a mouth , a projectile disposed in the mouth , a shoulder disposed below the mouth forming a bottleneck cartridge and at least a wall , molded from a polymer, between the first end and a second end of the upper component opposite the first end forming a propellant chamber and an insert joined to the second end, wherein the propellant chamber between the mouth and the insert is unobstructed, characterized in that the wall comprises a thickness at least 1.25 times greater than the standard thickness of the wall of the equivalent standard brass cartridge, and the propellant chamber comprises a powder load having a load density greater than 40%. a first end having a mouth , a projectile disposed in the mouth , a shoulder disposed below the mouth forming a bottleneck cartridge and at least a wall , molded from a polymer, between the first end and a second end of the upper component opposite the first end forming a propellant chamber and an insert joined to the second end, wherein the propellant chamber between the mouth and the insert is unobstructed, characterized in that the wall comprises a thickness at least 1.25 times greater than the standard thickness of the wall of the equivalent standard brass cartridge, and the propellant chamber comprises a powder load having a load density greater than 40%.
A vacuum insulated structure , comprising: a first panel having inner and outer surfaces ; a second panel having inner and outer surfaces , wherein the second panel is operably coupled to the first panel to define an insulating space therebetween; and an airway system disposed within the insulating space , wherein the airway system includes portions (42, 44, 46, 48 and 50) of porous tubing configured to draw air along lengths of the portions (42, 44, 46, 48 and 50) of porous tubing from the insulating space during an evacuation procedure, characterised in that the vacuum insulated structure includes a plurality of connectors (54A-54C) interconnecting the portions (42, 44, 46, 48 and 50) of porous tubing of the airway system with the inner surface of the second panel , wherein each connector (54A-54C) of the plurality of connectors (54A-54C) is coupled to the inner surface of the second panel , wherein each connector (54A-54C) of the plurality of connectors (54A-54C) includes a support member (56A-56C) outwardly extending therefrom, and wherein each support member (56A-56C) extends across the insulating space and abuts the inner surface of the first panel . a first panel having inner and outer surfaces ; a second panel having inner and outer surfaces , wherein the second panel is operably coupled to the first panel to define an insulating space therebetween; and an airway system disposed within the insulating space , wherein the airway system includes portions (42, 44, 46, 48 and 50) of porous tubing configured to draw air along lengths of the portions (42, 44, 46, 48 and 50) of porous tubing from the insulating space during an evacuation procedure, characterised in that the vacuum insulated structure includes a plurality of connectors (54A-54C) interconnecting the portions (42, 44, 46, 48 and 50) of porous tubing of the airway system with the inner surface of the second panel , wherein each connector (54A-54C) of the plurality of connectors (54A-54C) is coupled to the inner surface of the second panel , wherein each connector (54A-54C) of the plurality of connectors (54A-54C) includes a support member (56A-56C) outwardly extending therefrom, and wherein each support member (56A-56C) extends across the insulating space and abuts the inner surface of the first panel .