mhurhangee/patent-ind-claim-en huggingface dataset:
A runout measurement device for a rolling bearing , the runout measurement device comprising: a fixing stage to which an inner ring of a rolling bearing to be measured is fixed; a weight member (W) configured to apply a measuring load in an axial direction to an outer ring of the rolling bearing ; a runout amount detector configured to detect a radial or axial runout amount of the outer ring ; wherein the measuring load is applied to the outer ring of the bearing by the weight member (W), the outer ring is rotated together with the weight member (W) under this state, and the runout amount of the outer ring is detected by the runout amount detector ; characterized by: a phase detector configured to detect phase information of the inner ring ; and an analyzer configured to import a displacement signal, which is synchronized with a rotation phase, in the runout amount corresponding to displacement data detected by the runout amount detector , to thereby calculate a magnitude and a maximum phase of a runout of the outer ring based on data of the displacement signal, wherein the analyzer comprises a removing unit configured to remove a vibration component that is not synchronized with rotation, and wherein the removing unit comprises a drift correction processing unit . a fixing stage to which an inner ring of a rolling bearing to be measured is fixed; a weight member (W) configured to apply a measuring load in an axial direction to an outer ring of the rolling bearing ; a runout amount detector configured to detect a radial or axial runout amount of the outer ring ; wherein the measuring load is applied to the outer ring of the bearing by the weight member (W), the outer ring is rotated together with the weight member (W) under this state, and the runout amount of the outer ring is detected by the runout amount detector ; characterized by: a phase detector configured to detect phase information of the inner ring ; and an analyzer configured to import a displacement signal, which is synchronized with a rotation phase, in the runout amount corresponding to displacement data detected by the runout amount detector , to thereby calculate a magnitude and a maximum phase of a runout of the outer ring based on data of the displacement signal, a phase detector configured to detect phase information of the inner ring ; and an analyzer configured to import a displacement signal, which is synchronized with a rotation phase, in the runout amount corresponding to displacement data detected by the runout amount detector , to thereby calculate a magnitude and a maximum phase of a runout of the outer ring based on data of the displacement signal, wherein the analyzer comprises a removing unit configured to remove a vibration component that is not synchronized with rotation, and wherein the removing unit comprises a drift correction processing unit .
An arrangement for a suitcase with slidable internal frame to hang garment hangers comprising: a fixed support structure comprising two anchor fixed guides for fixing to the suitcase on its inner sides, and functioning as guide rails; and a slidable structure to hang garment hangers and capable of sliding inside said fixed anchor guides when pulled out of the suitcase by the user, wherein the slidable structure comprises: a.- two sliding guides ; b.- two end guides ; c.- four first adjustable cross arms ; d.- four second cross arms ; e.- two cross arm central sections ; and f.- a central coupling linking both cross arm central sections and which has holes to hang the hangers, wherein respective two of the four first adjustable cross arms , respective two of the four second cross arms and one of the two cross arm central sections form one of two cross arm assemblies extending between the two end guides , in which the two second cross arms are arranged between the two first adjustable cross arms and the cross arm central section . a fixed support structure comprising two anchor fixed guides for fixing to the suitcase on its inner sides, and functioning as guide rails; and a slidable structure to hang garment hangers and capable of sliding inside said fixed anchor guides when pulled out of the suitcase by the user, wherein the slidable structure comprises: a.- two sliding guides ; b.- two end guides ; c.- four first adjustable cross arms ; d.- four second cross arms ; e.- two cross arm central sections ; and f.- a central coupling linking both cross arm central sections and which has holes to hang the hangers, a.- two sliding guides ; b.- two end guides ; c.- four first adjustable cross arms ; d.- four second cross arms ; e.- two cross arm central sections ; and f.- a central coupling linking both cross arm central sections and which has holes to hang the hangers, wherein respective two of the four first adjustable cross arms , respective two of the four second cross arms and one of the two cross arm central sections form one of two cross arm assemblies extending between the two end guides , in which the two second cross arms are arranged between the two first adjustable cross arms and the cross arm central section .
Power splitter comprising at least two lateral waveguides with rectangular cross-section parallel to one another and a transverse waveguide with rectangular cross-section comprising two opposite ends respectively connected to the two lateral waveguides, wherein the two lateral waveguides each comprise two opposite ends constituting four input/output ports , configured to feed radiating elements and the transverse waveguide comprises a central feed port , configured to allow the attachment of the device to an emission source, the two lateral waveguides being oriented along a direction Y and mounted flat with their large side parallel to a plane XY, the transverse waveguide being oriented along a direction X perpendicular to the direction Y and mounted edgewise with its small side parallel to the plane XY, each lateral waveguide being coupled to the transverse waveguide by a tee coupler in the E-plane with embedded junction, the two ends of the transverse waveguide being respectively embedded in each lateral waveguide , at the centre of said respective lateral waveguide.
Insert which can be inserted into an inhaler (I), particularly for a horse (P), wherein the insert comprises a reservoir for a medicament preparation held under excess pressure, with a valve , wherein the insert comprises a nebulizer held directly on the reservoir , and a discharge nozzle associated with the nebulizer and fluidically connected to the valve , for forming a respirable aerosol with the medicament preparation , and characterised in that the insert or the nebulizer comprises an orientation device which is configured to allow insertion into the inhaler (I) only in a specified rotational orientation of the insert or the nebulizer about a central axis (M) of the reservoir or insert , and/or initiation of the dispensing of the medicament preparation only in a specified rotational orientation of the insert or the nebulizer about the central axis (M) of the reservoir or insert .
A sample manipulator, comprising: a housing ; a disk supported by the housing; a member supported by the disk , the member having legs and a surface configured to support a sample ; and a device , wherein the device contacts the member to move the sample in a first mode, and the device is not in contact with the member in a second mode. a housing ; a disk supported by the housing; a member supported by the disk , the member having legs and a surface configured to support a sample ; and a device , wherein the device contacts the member to move the sample in a first mode, and the device is not in contact with the member in a second mode.
A method for determining a folate substance administration regime, said method comprising: quantifying, in a sample drawn from a patient, the expression level of the gene ABCC3; and establishing whether said expression level is high or low, wherein a high expression level of said gene determines that said folate substance administration regime involves the administration of -methylenetetrahydrofolate and/or a folate substance upstream of -methylenetetrahydrofolate in the metabolic pathway, wherein the folate substance upstream of -methylenetetrahydrofolate is levoleucovorin ( -5-CHO-tetrahydrofolate) or leucovorin ([6R,S]-5-CHO-tetrahydrofolate). quantifying, in a sample drawn from a patient, the expression level of the gene ABCC3; and establishing whether said expression level is high or low, wherein a high expression level of said gene determines that said folate substance administration regime involves the administration of -methylenetetrahydrofolate and/or a folate substance upstream of -methylenetetrahydrofolate in the metabolic pathway, wherein the folate substance upstream of -methylenetetrahydrofolate is levoleucovorin ( -5-CHO-tetrahydrofolate) or leucovorin ([6R,S]-5-CHO-tetrahydrofolate).
A method implemented in a user agent, UA, comprising a processor and a memory device storing instructions executable by the processor to implement the method, the method comprising: transmitting, in a media access control, MAC, control element from the UA to an access node, power headroom-related information for a number of aggregated carriers, the number of aggregated carriers comprising a plurality of aggregated carriers that is less than or equal to a total number of the aggregated carriers, the number of aggregated carriers comprising at least a first carrier and a second carrier, wherein the MAC control element includes a bitmap, the bitmap having a first bit with a first value indicating that the MAC control element includes a first power headroom value for the first carrier and a second bit with a second value indicating that the MAC control element does not include a second power headroom value for the second carrier; wherein the bitmap has a length equal to a number of reporting carriers among the number of aggregated carriers. transmitting, in a media access control, MAC, control element from the UA to an access node, power headroom-related information for a number of aggregated carriers, the number of aggregated carriers comprising a plurality of aggregated carriers that is less than or equal to a total number of the aggregated carriers, the number of aggregated carriers comprising at least a first carrier and a second carrier, wherein the MAC control element includes a bitmap, the bitmap having a first bit with a first value indicating that the MAC control element includes a first power headroom value for the first carrier and a second bit with a second value indicating that the MAC control element does not include a second power headroom value for the second carrier; wherein the bitmap has a length equal to a number of reporting carriers among the number of aggregated carriers.
A method, comprising: without ceasing flow of fluid through a flow meter : transmitting an ultrasonic signal of a first frequency through the fluid ; determining the quality of the ultrasonic signal ; characterized in that the method further comprises: adjusting the first frequency to a second frequency as a result of the quality failing to meet a threshold; and transmitting another ultrasonic signal of the second frequency through the fluid . transmitting an ultrasonic signal of a first frequency through the fluid ; determining the quality of the ultrasonic signal ; characterized in that the method further comprises: adjusting the first frequency to a second frequency as a result of the quality failing to meet a threshold; and transmitting another ultrasonic signal of the second frequency through the fluid . adjusting the first frequency to a second frequency as a result of the quality failing to meet a threshold; and transmitting another ultrasonic signal of the second frequency through the fluid .
Method for testing capacitive current switching of a circuit breaker, comprising steps of: - realisation (E2) of a capacitive current switching by the circuit breaker, - measurement (E2) of voltage at the terminals of the circuit breaker after the capacitive current switching, the method being characterized in that it comprises steps of: - calculation (E3) of the gradient of the measured voltage, - determination (E4) as to whether there is at least one point of gradient whose amplitude exhibits an absolute value greater than a first predetermined threshold, and when such a point is determined, - identification (E5) of the instant of appearance of the determined point and of the amplitude of variation of the voltage at that instant, as voltage drop. - realisation (E2) of a capacitive current switching by the circuit breaker, - measurement (E2) of voltage at the terminals of the circuit breaker after the capacitive current switching, the method being characterized in that it comprises steps of: - calculation (E3) of the gradient of the measured voltage, - determination (E4) as to whether there is at least one point of gradient whose amplitude exhibits an absolute value greater than a first predetermined threshold, and when such a point is determined, - identification (E5) of the instant of appearance of the determined point and of the amplitude of variation of the voltage at that instant, as voltage drop. - calculation (E3) of the gradient of the measured voltage, - determination (E4) as to whether there is at least one point of gradient whose amplitude exhibits an absolute value greater than a first predetermined threshold, and when such a point is determined, - identification (E5) of the instant of appearance of the determined point and of the amplitude of variation of the voltage at that instant, as voltage drop.
A method for producing a porous silicone sheet comprising a freezing step of freezing a wet gel of a porous silicone body having communicating pores and a three-dimensional network silicone skeleton which forms the pores and which is formed by a copolymerization of a bifunctional alkoxysilane and a trifunctional alkoxysilane, to obtain a frozen body, a sheet forming step of forming the frozen body into a sheet to obtain a porous silicone sheet, and a cleaning step of cleaning the porous silicone sheet.
A terminal comprising: a reception section configured to receive a downlink shared channel; and a control section configured to control rate-matching of the downlink shared channel based on a candidate resource configured by higher layer signaling, wherein the candidate resource is a candidate for a resource which is not available for the downlink shared channel and configured per resource block, wherein the control section is further configured to support a mode in which the candidate resource is configured with a same subcarrier spacing as the downlink shared channel and a mode in which the candidate resource is configured with a different subcarrier spacing from the downlink shared channel. a reception section configured to receive a downlink shared channel; and a control section configured to control rate-matching of the downlink shared channel based on a candidate resource configured by higher layer signaling, wherein the candidate resource is a candidate for a resource which is not available for the downlink shared channel and configured per resource block, wherein the control section is further configured to support a mode in which the candidate resource is configured with a same subcarrier spacing as the downlink shared channel and a mode in which the candidate resource is configured with a different subcarrier spacing from the downlink shared channel.
A material for a packaging in the shape of a bag with at least one cut out handle inside, where the material is a continuous band of paper coated with a polymer on at least one side, joined by welding with overlapping elements of a polymeric mesh , wherein the band is a paper coated with biopolymer or polyolefin chosen among PE polyethylene or PP polypropylene and the mesh elements are at least in places designated for the handle of a finished packaging , wherein the mesh elements are directly joined by welding at the overlap with the polymer coated band , wherein the band comprises holes of any shape, and, characterized in that the polymeric mesh elements also overlap these holes in such a way that each mesh element constitutes one continuous band which covers a space intended for the handle of the packaging and the places of holes of a single packaging . the band is a paper coated with biopolymer or polyolefin chosen among PE polyethylene or PP polypropylene and the mesh elements are at least in places designated for the handle of a finished packaging , wherein the mesh elements are directly joined by welding at the overlap with the polymer coated band , wherein the band comprises holes of any shape, and, characterized in that the polymeric mesh elements also overlap these holes in such a way that each mesh element constitutes one continuous band which covers a space intended for the handle of the packaging and the places of holes of a single packaging .
A method of producing an aged, dry hopped beer by drawing out flavor of hops and infuse the extracted flavor into the beer, the method comprising the steps of: (a) obtaining a volume of the beer to be aged and dry hopped; (b) obtaining a controlled cavitation reactor comprising a cylindrical housing having an internally mounted cylindrical rotor having cavitation-inducing structures formed in an outer peripheral surface of the rotor, wherein a cavitation zone is defined between the outer peripheral surface of the rotor and the inner peripheral surface of the housing, and wherein radial bores in or on the outer peripheral surface of the rotor are used as the cavitation-inducing structures; (c) subjecting the beer to cavitation within the cavitation zone of the controlled cavitation reactor by flowing the beer through the cavitation zone of the controlled cavitation reactor while rotating the rotor within the housing by an electric motor at a rate sufficient to induce cavitation events in the beer as the beer moves through the cavitation zone; and (d) entraining hops in the flow of the beer in such a way that the hops move through the cavitation zone with the beer and are subjected to cavitation-induced shock waves and pressure variations in the beer within the cavitation zone to extract flavor therefrom and infuse the flavor into the beer. (a) obtaining a volume of the beer to be aged and dry hopped; (b) obtaining a controlled cavitation reactor comprising a cylindrical housing having an internally mounted cylindrical rotor having cavitation-inducing structures formed in an outer peripheral surface of the rotor, wherein a cavitation zone is defined between the outer peripheral surface of the rotor and the inner peripheral surface of the housing, and wherein radial bores in or on the outer peripheral surface of the rotor are used as the cavitation-inducing structures; (c) subjecting the beer to cavitation within the cavitation zone of the controlled cavitation reactor by flowing the beer through the cavitation zone of the controlled cavitation reactor while rotating the rotor within the housing by an electric motor at a rate sufficient to induce cavitation events in the beer as the beer moves through the cavitation zone; and (d) entraining hops in the flow of the beer in such a way that the hops move through the cavitation zone with the beer and are subjected to cavitation-induced shock waves and pressure variations in the beer within the cavitation zone to extract flavor therefrom and infuse the flavor into the beer.
Method for extinguishing an arc (X) in an alternating current system (L1..L3) by means of a short-circuit switch (KS) which comprises at least two antiparallel-connected semiconductor switching elements (S1a..S3b), wherein - upon detection of an arc (X) in a monitoring area , a semiconductor switching element (S1a) of the short-circuit switch (KS), positioned in the flow direction of the current, is closed and wherein - after a reversal of the current, a semiconductor element (S1b) of the short-circuit switch (KS), which is connected anti-parallel relative to said semiconductor switching element (S1a), is only closed if an arc (X) continues to be detected in the monitoring area , characterised in that - the semiconductor switching elements (S1a..S3b) remain closed after a predeterminable number of re-ignitions of the arc (X). - upon detection of an arc (X) in a monitoring area , a semiconductor switching element (S1a) of the short-circuit switch (KS), positioned in the flow direction of the current, is closed and wherein - after a reversal of the current, a semiconductor element (S1b) of the short-circuit switch (KS), which is connected anti-parallel relative to said semiconductor switching element (S1a), is only closed if an arc (X) continues to be detected in the monitoring area , - the semiconductor switching elements (S1a..S3b) remain closed after a predeterminable number of re-ignitions of the arc (X).
Device for determining and/or monitoring the temperature (T) of a medium (M), comprising a temperature sensor (T 1 ) with a temperature-sensitive sensor element and at least one first and one second connection cable , wherein the sensor element is electrically connected via at least the first and the second connection cable , wherein the first connection cable is subdivided into a first and a second section , wherein the first section facing the sensor element comprises a first material and wherein the second section facing away from the sensor element comprises a second material that differs from the first material, wherein the second connection cable is produced from the second material, and wherein the first section of the first connection cable and at least one part (t) of the second connection cable establish a first differential temperature sensor (T 2 ) in the form of a thermal element, wherein the temperature-sensitive sensor element of the temperature sensor (T 1 ) is a resistance element, wherein the temperature sensor can also encompass a substrate on which the resistance element is arranged, and wherein the first connection cable and the second connection cable are connected directly to the resistance element or to the substrate on which the sensor element that is produced as a resistance element is arranged, so that a temperature gradient can be recorded directly in the location of the temperature sensor (T 1 ) using the first differential temperature sensor (T 2 ). a temperature sensor (T 1 ) with a temperature-sensitive sensor element and at least one first and one second connection cable , wherein the sensor element is electrically connected via at least the first and the second connection cable , wherein the first connection cable is subdivided into a first and a second section , wherein the first section facing the sensor element comprises a first material and wherein the second section facing away from the sensor element comprises a second material that differs from the first material, wherein the second connection cable is produced from the second material, and wherein the first section of the first connection cable and at least one part (t) of the second connection cable establish a first differential temperature sensor (T 2 ) in the form of a thermal element, wherein the temperature-sensitive sensor element of the temperature sensor (T 1 ) is a resistance element, wherein the temperature sensor can also encompass a substrate on which the resistance element is arranged, and wherein the first connection cable and the second connection cable are connected directly to the resistance element or to the substrate on which the sensor element that is produced as a resistance element is arranged, so that a temperature gradient can be recorded directly in the location of the temperature sensor (T 1 ) using the first differential temperature sensor (T 2 ).