mhurhangee/patent-ind-claim-en huggingface dataset:
Chair , comprising a seat having a seat shell , and a frame for supporting the seat , wherein the frame comprises, on its side facing the seat , at least one fastening strut running parallel to the plane of the seat shell ; an underside of the seat shell facing the frame comprises a receiving profile for receiving at least a part of the fastening strut of the frame ; the receiving profile comprises a fastening section which runs from a circumferential edge of the seat shell parallel to the plane of the seat shell into the interior of the seat shell , and has an access opening at the circumferential edge of the seat shell ; and there is provided a clamping strip for clamping the fastening strut in the fastening section of the receiving profile of the seat shell , which is insertable into the fastening section from the access opening of the fastening section at the circumferential edge of the seat shell on a side of the fastening strut of the frame facing away from the seat shell in a direction parallel to a longitudinal direction of the fastening section, and is fixed in an end position of the clamping strip in the fastening section in a direction perpendicular to the plane of the seat shell , characterised in that the fastening section of the receiving profile comprises a first latching element , and the clamping strip comprises a second latching element which engages with the first latching element on the fastening section in the end position of the clamping strip in the fastening section to latch the clamping strip in the longitudinal direction of the fastening section . the frame comprises, on its side facing the seat , at least one fastening strut running parallel to the plane of the seat shell ; an underside of the seat shell facing the frame comprises a receiving profile for receiving at least a part of the fastening strut of the frame ; the receiving profile comprises a fastening section which runs from a circumferential edge of the seat shell parallel to the plane of the seat shell into the interior of the seat shell , and has an access opening at the circumferential edge of the seat shell ; and there is provided a clamping strip for clamping the fastening strut in the fastening section of the receiving profile of the seat shell , which is insertable into the fastening section from the access opening of the fastening section at the circumferential edge of the seat shell on a side of the fastening strut of the frame facing away from the seat shell in a direction parallel to a longitudinal direction of the fastening section, and is fixed in an end position of the clamping strip in the fastening section in a direction perpendicular to the plane of the seat shell , characterised in that the fastening section of the receiving profile comprises a first latching element , and the clamping strip comprises a second latching element which engages with the first latching element on the fastening section in the end position of the clamping strip in the fastening section to latch the clamping strip in the longitudinal direction of the fastening section .
A disposable self-integrated negative pressure wound therapy device, comprising: a housing (20; 120; 220; 420; 520; 520a; 520b; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640; 640'; 840) positioned inside of the housing, wherein the liquid-retention chamber comprises a porous structure for retaining liquid; a vacuum connection (30; 130; 232; 432) for coupling to a vacuum source, the vacuum connection in gaseous communication with the liquid-retention chamber, the vacuum connection being separated from the liquid-retention chamber by a liquid barrier (36; 136; 236; 436; 636; 636'); and wherein the vacuum connection is coupled to a micro-vacuum pump located within or adjacent to the housing; and further comprising a seal for sealing the housing to a body surface of a patient; characterized in that the liquid barrier is a porous hydrophobic structure that serves to prevent travel of liquid from the liquid-retention chamber to the vacuum connection. a housing (20; 120; 220; 420; 520; 520a; 520b; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640; 640'; 840) positioned inside of the housing, wherein the liquid-retention chamber comprises a porous structure for retaining liquid; a vacuum connection (30; 130; 232; 432) for coupling to a vacuum source, the vacuum connection in gaseous communication with the liquid-retention chamber, the vacuum connection being separated from the liquid-retention chamber by a liquid barrier (36; 136; 236; 436; 636; 636'); and wherein the vacuum connection is coupled to a micro-vacuum pump located within or adjacent to the housing; and further comprising a seal for sealing the housing to a body surface of a patient; characterized in that the liquid barrier is a porous hydrophobic structure that serves to prevent travel of liquid from the liquid-retention chamber to the vacuum connection.
A method for optimizing auxiliary loads of a wind farm comprising a plurality of wind turbines, the method comprising: tracking, via a farm-level controller of the wind farm, operational usage for one or more auxiliary components of at least one of the plurality of wind turbines in the wind farm, the operational usage for the one or more auxiliary components placing a load on the one or more auxiliary components ; determining, via the farm-level controller, a power consumption of the load induced on the one or more auxiliary components based on the operational usage ; receiving, via the farm-level controller, at least one additional parameter of the wind farm ; and, implementing, via the farm-level controller, a control command for one or more of the one or more auxiliary components based on the power consumption and the at least one additional parameter ; wherein implementing the control command for one or more of the one or more auxiliary components based on the power consumption and the at least one additional parameter further comprises: when at least one of the plurality of wind turbines is operating at rated power, reducing the load induced on the one or more auxiliary components including reducing rather than turning off a yaw system by avoiding yawing at rated power. tracking, via a farm-level controller of the wind farm, operational usage for one or more auxiliary components of at least one of the plurality of wind turbines in the wind farm, the operational usage for the one or more auxiliary components placing a load on the one or more auxiliary components ; determining, via the farm-level controller, a power consumption of the load induced on the one or more auxiliary components based on the operational usage ; receiving, via the farm-level controller, at least one additional parameter of the wind farm ; and, implementing, via the farm-level controller, a control command for one or more of the one or more auxiliary components based on the power consumption and the at least one additional parameter ; wherein implementing the control command for one or more of the one or more auxiliary components based on the power consumption and the at least one additional parameter further comprises: when at least one of the plurality of wind turbines is operating at rated power, reducing the load induced on the one or more auxiliary components including reducing rather than turning off a yaw system by avoiding yawing at rated power.
A windscreen wiper arm , particularly for automobiles, being able to oscillate to-and-from between a first reversal position and a second reversal position, and comprising a wiper arm member having a substantially U-shaped cross-section, as well as a wiper rod , wherein said wiper arm member at one end thereof is arranged to be pivotally connected to a mounting head mounted on a drive shaft, and wherein said wiper arm member at another end thereof is rigidly connected to said wiper rod , wherein said wiper rod at one end thereof extends inside the U-shaped cross-section of the wiper arm member , and wherein said wiper rod at another end thereof is arranged to be connected to an elongated wiper blade to be placed in abutment with a windscreen to be wiped, wherein said windscreen wiper arm is provided with a nozzle for spraying a washing liquid onto said windscreen to be wiped, wherein said nozzle is detachably connected to said wiper rod inside the U-shaped cross-section of the wiper arm member , characterized in that said wiper rod near said one end thereof that extends inside the U-shaped cross-section of the wiper arm member is bend outwardly and comprises a hole for hooking an end of a spring therein, wherein said windscreen wiper arm comprises said spring inside the U-shaped cross-section of the wiper arm member , said spring at one end thereof being arranged to be connected to said mounting head and at another end thereof being arranged to be connected to said wiper rod through said hole , and wherein a movement of said nozzle in longitudinal direction is blocked by said spring in a direction towards said mounting head, and by tapering sidewalls of the U-shaped cross-section of the wiper arm member in a direction away from said mounting head.
A method of transmitting a reference signal by a transmitting device in a wireless communication system, the method comprising: receiving a configuration of a resource pool consisting of uplink resources; and mapping reference signals and data to a specific uplink resource based on the resource pool configuration and N antennas of the transmitting device, where N is a natural number, wherein the reference signals are mapped to resource elements positioned at one or more specific locations in the specific uplink resource, wherein the data are mapped to consecutive resource elements as many as the number of the antennas in a time domain, and wherein the data are configured to be orthogonal to each other on uplink resources except the one or more specific locations by applying a space-time block code, STBC, in the time domain. receiving a configuration of a resource pool consisting of uplink resources; and mapping reference signals and data to a specific uplink resource based on the resource pool configuration and N antennas of the transmitting device, where N is a natural number, wherein the reference signals are mapped to resource elements positioned at one or more specific locations in the specific uplink resource, wherein the data are mapped to consecutive resource elements as many as the number of the antennas in a time domain, and wherein the data are configured to be orthogonal to each other on uplink resources except the one or more specific locations by applying a space-time block code, STBC, in the time domain.
A preform manufacturing device for manufacturing a preform from thermoplastic resin flakes, the preform manufacturing device comprises: a decontamination apparatus removing contaminants in the thermoplastic resin flakes, and an injection molding apparatus (5") injecting and molding the thermoplastic resin supplied from the decontamination apparatus , and the injection molding apparatus comprises a plurality of molds and continuously shapes preforms; the preform manufacturing device further comprising a filter disposed between the decontamination apparatus and the injection molding apparatus , characterized in that a gear pump is disposed between the filter and the injection molding apparatus . a decontamination apparatus removing contaminants in the thermoplastic resin flakes, and an injection molding apparatus (5") injecting and molding the thermoplastic resin supplied from the decontamination apparatus , and the injection molding apparatus comprises a plurality of molds and continuously shapes preforms;
A tablet comprising a first region and a second region, wherein: (i) said first region and said second region each comprise at least 10%, by volume, of said tablet; (ii) said first region comprises a pharmaceutically active agent and the composition of said first region is different from the composition of said second region; (iii) said first region has a density less than 0.8 g/cc; and (iv) said first region disintegrates in the mouth when placed on the tongue in less than 30 seconds; wherein the shape of said tablet comprises two opposing major faces separated by a side wall, and the interface between said first region and said second region is along both of the major faces of said tablet such that the interface extends through the tablet and both major faces of said tablet. (i) said first region and said second region each comprise at least 10%, by volume, of said tablet; (ii) said first region comprises a pharmaceutically active agent and the composition of said first region is different from the composition of said second region; (iii) said first region has a density less than 0.8 g/cc; and (iv) said first region disintegrates in the mouth when placed on the tongue in less than 30 seconds; wherein the shape of said tablet comprises two opposing major faces separated by a side wall, and the interface between said first region and said second region is along both of the major faces of said tablet such that the interface extends through the tablet and both major faces of said tablet.
A method of forming a desired pattern on a substrate comprising the steps of a) generating an atomic or molecular beam; b) providing a mask having a desired pattern; c) directing the atomic or molecular beam through the patterned mask onto a substrate, whereby a pattern is formed on the substrate by interaction with the proportion of the atomic or molecular beam which penetrates through the mask, which pattern is based on the pattern of the mask, wherein the patterned mask is prepared by a method comprising d) providing a porous starting mask material having openings of a size which allow the atomic or molecular beam to penetrate through; e) creating the desired pattern on the mask by filling a proportion of the openings of the mask which thereby become non-transparent for the atomic or molecular beam. a) generating an atomic or molecular beam; b) providing a mask having a desired pattern; c) directing the atomic or molecular beam through the patterned mask onto a substrate, whereby a pattern is formed on the substrate by interaction with the proportion of the atomic or molecular beam which penetrates through the mask, which pattern is based on the pattern of the mask, wherein the patterned mask is prepared by a method comprising d) providing a porous starting mask material having openings of a size which allow the atomic or molecular beam to penetrate through; e) creating the desired pattern on the mask by filling a proportion of the openings of the mask which thereby become non-transparent for the atomic or molecular beam.
A gas exchange valve for a reciprocating piston internal combustion engine, in particular an outlet valve for a longitudinally scavenged large two-stroke diesel engine, wherein the gas exchange valve includes a valve body having a valve shaft extending along an axial valve shaft axis (A), as well as a valve disc adjoining at the valve shaft , which valve disc extends away from the valve shaft in the axial direction and extends radially expanding outwardly with respect to the valve shaft axis (A), wherein a valve mating surface is formed at the valve disc between a foot surface of the valve disc , formed substantially orthogonal with respect to the valve shaft axis (A), and the valve shaft , wherein a recess in the form of a first coating depression is provided in the foot surface of the valve disc in which coating depression a corrosion protective coating in the form of a first corrosion protective layer is welded and wherein the corrosion protective coating includes at least a second corrosion protective layer which is welded directly onto the first corrosion protective layer .
A method comprising: performing one or more resistance measurements on a resistance coupon on a printed circuit board (PCB) panel; determining a first conversion factor based on an amount of resistance per unit distance determined during the one or more resistance measurements; measuring a first resistance between a first center terminal and a first peripheral terminal of a first registration coupon on the PCB panel including at least one PCB; measuring a second resistance between the first center terminal and a second peripheral terminal of the first registration coupon, wherein the first and second peripheral terminals are associated with a first internal layer of the PCB; determining a difference between the first and second resistances; and determining a distance of misregistration between the first internal layer and a center terminal, if any, along a first axis, based on the difference between the first and second resistances and the first conversion factor. performing one or more resistance measurements on a resistance coupon on a printed circuit board (PCB) panel; determining a first conversion factor based on an amount of resistance per unit distance determined during the one or more resistance measurements; measuring a first resistance between a first center terminal and a first peripheral terminal of a first registration coupon on the PCB panel including at least one PCB; measuring a second resistance between the first center terminal and a second peripheral terminal of the first registration coupon, wherein the first and second peripheral terminals are associated with a first internal layer of the PCB; determining a difference between the first and second resistances; and determining a distance of misregistration between the first internal layer and a center terminal, if any, along a first axis, based on the difference between the first and second resistances and the first conversion factor.
A lubricant composition comprising a base oil of lubricating viscosity, wherein the base oil comprises an ether base stock of formula : where: R 1 and R 2 are alkyl or, together with the carbon atom to which they are attached, cycloalkyl; R 3 and R 5 are H or alkyl, and R 4 is alkyl; R 6 is alkyl; and m and n are 0, 1, 2 or 3 the lubricant composition further comprising at least one aminic anti-oxidant and at least one phenolic anti-oxidant. R 3 and R 5 are H or alkyl, and R 4 is alkyl; R 6 is alkyl; and m and n are 0, 1, 2 or 3
A method for connecting a first component to a second component , with an axial lock between these two components being established by means of caulking, wherein a axial lock between the two components is established by deforming, by means of a caulking tool , a lug formed on the first component into a recess formed on the second component , characterized in that the second component is provided with teeth , and that also the caulking tool is provided with teeth interacting with the teeth of the second component in the manner of a linear guide during caulking.
A process for producing an emulsion of an aqueous phase dispersed in a continuous fat phase comprising the steps of: a. mixing the aqueous phase and the continuous fat phase with monoacylglycerols that are 87% glycerol monostearate (GMS) and 12% glycerol monopalmitate (GMP) and triacylglycerols that are HCO (hydrogenated canola oil), wherein the monoacylglycerols and triacylglycerols each or together have a crystallization temperature at least 8°C higher than the continuous fat phase, wherein the crystallization temperature is measured using differential scanning calorimetry (DSC) at a heating and cooling rate of 5 0 C/min, and optionally a non-crystallizing emulsifier, at a temperature above the crystallization temperature of the continuous fat phase, monoacylglycerols, and triacylglycerols; and b. homogenizing the mixture, preferably under high shear, to obtain an emulsion; and c. cooling the emulsion to a temperature below the crystallisation temperature of the monoacylglycerols and the triacylglycerols and above the crystallisation temperature of the continuous fat phase, whilst stirring, wherein cooling is performed at a rate of 0.01 to 4°C/min; and d. recovering the emulsion. a. mixing the aqueous phase and the continuous fat phase with monoacylglycerols that are 87% glycerol monostearate (GMS) and 12% glycerol monopalmitate (GMP) and triacylglycerols that are HCO (hydrogenated canola oil), wherein the monoacylglycerols and triacylglycerols each or together have a crystallization temperature at least 8°C higher than the continuous fat phase, wherein the crystallization temperature is measured using differential scanning calorimetry (DSC) at a heating and cooling rate of 5 0 C/min, and optionally a non-crystallizing emulsifier, at a temperature above the crystallization temperature of the continuous fat phase, monoacylglycerols, and triacylglycerols; and b. homogenizing the mixture, preferably under high shear, to obtain an emulsion; and c. cooling the emulsion to a temperature below the crystallisation temperature of the monoacylglycerols and the triacylglycerols and above the crystallisation temperature of the continuous fat phase, whilst stirring, wherein cooling is performed at a rate of 0.01 to 4°C/min; and d. recovering the emulsion.
Method for detecting inclusions of gases in the blood in a dialysis treatment, wherein the blood is conveyed through a line, wherein a magnetic field is generated under defined conditions, wherein a sensor is associated with the line, with which sensor a magnitude representing the strength of the magnetic field is measurable , wherein the sensor consists of two coils corresponding with one another and characterised in that the first coil is acted upon by a direct current, wherein the magnitude representing the strength of the magnetic field is measured by evaluating the magnetic field induced in the second coil .
An image decoding device comprising: a variable-length-decoding unit for performing variable-length-decoding process on coded data to obtain a coding mode for each of coding blocks; and an intra prediction image generating unit for performing a prediction process for a partition to be coded by intra prediction mode to generate an intra prediction image; characterized in that said variable-length-decoding unit performs variable-length-decoding on an intra merge flag indicating whether or not an intra prediction parameter for said partition to be coded is identical to that for an adjacent partition located adjacent to said partition; wherein, when there are two or more partitions adjacent to top or left of said partition to be coded, said two or more partitions are scanned and the first partition to be coded in said intra prediction mode is selected as said adjacent partition; and when said intra merge flag indicates that said intra prediction parameter for said partition to be coded is identical to that for said adjacent partition, said variable-length-decoding unit decodes an intra merge direction flag which identifies said adjacent partition. a variable-length-decoding unit for performing variable-length-decoding process on coded data to obtain a coding mode for each of coding blocks; and an intra prediction image generating unit for performing a prediction process for a partition to be coded by intra prediction mode to generate an intra prediction image; characterized in that said variable-length-decoding unit performs variable-length-decoding on an intra merge flag indicating whether or not an intra prediction parameter for said partition to be coded is identical to that for an adjacent partition located adjacent to said partition; wherein, when there are two or more partitions adjacent to top or left of said partition to be coded, said two or more partitions are scanned and the first partition to be coded in said intra prediction mode is selected as said adjacent partition; and when said intra merge flag indicates that said intra prediction parameter for said partition to be coded is identical to that for said adjacent partition, said variable-length-decoding unit decodes an intra merge direction flag which identifies said adjacent partition.