mhurhangee/patent-ind-claim-en huggingface dataset:
A first apparatus for a radio terminal, comprising at least receiving means to: receive a plurality of PUCCH, Physical Uplink Control Channel, configuration parameters (cp1, cp#), receive at least one preparation indicator (pi) associated with at least one or a plurality of PUCCH configuration parameters (cp1, cp#) which are subject to an update upon receiving at least one new PUCCH configuration parameter (cp1; cp#), receive the at least one new configuration parameter (CpN); and transmitting means to transmit uplink control information (UCI) via a PUCCH, wherein the PUCCH is configured according to at least one of the received plurality of PUCCH configuration parameters (cp1, cp#). receiving means to: receive a plurality of PUCCH, Physical Uplink Control Channel, configuration parameters (cp1, cp#), receive at least one preparation indicator (pi) associated with at least one or a plurality of PUCCH configuration parameters (cp1, cp#) which are subject to an update upon receiving at least one new PUCCH configuration parameter (cp1; cp#), receive the at least one new configuration parameter (CpN); and receive a plurality of PUCCH, Physical Uplink Control Channel, configuration parameters (cp1, cp#), receive at least one preparation indicator (pi) associated with at least one or a plurality of PUCCH configuration parameters (cp1, cp#) which are subject to an update upon receiving at least one new PUCCH configuration parameter (cp1; cp#), receive the at least one new configuration parameter (CpN); and transmitting means to transmit uplink control information (UCI) via a PUCCH, wherein the PUCCH is configured according to at least one of the received plurality of PUCCH configuration parameters (cp1, cp#).
A stent inserted into a lesion portion of a stenosed lumen for smooth flow of blood and manufactured using a jig, in which a plurality of pins (P) are arranged on a cylindrical body in a circumferential direction (X) and a longitudinal direction (Y), the stent comprising a cylindrical structure forming a mesh structure having a diamond pattern in which a zigzag pattern is formed by weaving a wire member in the circumferential direction (X) with a certain width using the pins (P) arranged at the same intervals on the jig and a plurality of such zigzag patterns formed in the circumferential direction (X) are arranged in a longitudinal direction of certain intervals (W) while intersecting with each other, wherein in the cylindrical structure, an A-type diamond pattern having a first intersection angle relatively large in a longitudinal direction and a B-type diamond pattern having a second intersection angle relatively small in comparison to the A-type diamond pattern are repetitively formed with a certain section and period, wherein in the cylindrical structure, the A-type diamond pattern and the B-type diamond pattern have the same widths in the circumferential direction (X), wherein in the cylindrical structure, the A-type diamond pattern have the same intervals at a first interval W1 disposed in a central portion of the certain section in the longitudinal direction (Y) of the cylindrical body, the B-type diamond pattern have the same intervals at a second interval W2 disposed in a central portion of the certain section in the longitudinal direction (Y) of the cylindrical body, wherein in the cylindrical structure, the first intersection angle is 90 degrees and the second intersection angle is 54 degrees. wherein in the cylindrical structure, an A-type diamond pattern having a first intersection angle relatively large in a longitudinal direction and a B-type diamond pattern having a second intersection angle relatively small in comparison to the A-type diamond pattern are repetitively formed with a certain section and period, wherein in the cylindrical structure, the A-type diamond pattern and the B-type diamond pattern have the same widths in the circumferential direction (X), wherein in the cylindrical structure, the A-type diamond pattern have the same intervals at a first interval W1 disposed in a central portion of the certain section in the longitudinal direction (Y) of the cylindrical body, the B-type diamond pattern have the same intervals at a second interval W2 disposed in a central portion of the certain section in the longitudinal direction (Y) of the cylindrical body, wherein in the cylindrical structure, the first intersection angle is 90 degrees and the second intersection angle is 54 degrees.
An electric motor diagnosis device comprising: a load torque calculation unit for calculating load torques of an electric motor with use of voltages and currents having been sampled and inputted from a main circuit to which the electric motor is connected; a histogram calculation unit for calculating an average value and a standard deviation of a probability density function of the load torques which are equal in number to the number of samples and which are calculated by the load torque calculation unit, to obtain a histogram, wherein the number of samples is equal to a number of the load torques, wherein the histogram is a graph with a horizontal axis being a load torque value and with a vertical axis being the probability density with the probability density function expressed in a normal distribution; and an abnormality determination unit for calculating a peak ratio (B/A), wherein A is the largest peak value and wherein B is the second largest peak value and for setting a threshold value for the peak ratio (B/A), whereby a cyclic torque abnormality can be detected, and to determine whether or not there is an abnormality in the electric motor , if two or more peak parts exist in the histogram obtained by the histogram calculation unit . a load torque calculation unit for calculating load torques of an electric motor with use of voltages and currents having been sampled and inputted from a main circuit to which the electric motor is connected; a histogram calculation unit for calculating an average value and a standard deviation of a probability density function of the load torques which are equal in number to the number of samples and which are calculated by the load torque calculation unit, to obtain a histogram, wherein the number of samples is equal to a number of the load torques, wherein the histogram is a graph with a horizontal axis being a load torque value and with a vertical axis being the probability density with the probability density function expressed in a normal distribution; and an abnormality determination unit for calculating a peak ratio (B/A), wherein A is the largest peak value and wherein B is the second largest peak value and for setting a threshold value for the peak ratio (B/A), whereby a cyclic torque abnormality can be detected, and to determine whether or not there is an abnormality in the electric motor , if two or more peak parts exist in the histogram obtained by the histogram calculation unit .
Laser apparatus, comprising: a gain-medium having a plurality of emission bands; first and second resonator mirrors , each resonator mirror having a reflective surface, the resonator mirrors arranged around the gain-medium to form an unstable laser-resonator, the unstable laser-resonator having an optical axis ; wherein the second resonator mirror includes a spectrally-selective element , the spectrally-selective element occupying a less than 30% portion of the reflective surface of the second resonator mirror , the spectrally-selective element located on the optical axis , the spectrally-selective element having a reflection loss of less than about 4% for a desired emission band and a reflection loss of greater than 10% for other emission bands; wherein the first mirror and the spectrally-selective element in the second mirror form a stable laser-resonator on the optical axis, the stable laser-resonator generating laser-radiation predominantly in the desired emission band, laser-radiation generated by the stable laser-resonator leaking into the unstable laser-resonator, thereby seeding the unstable laser-resonator; and wherein energizing the gain-medium produces laser-radiation from the unstable laser-resonator having higher power in the desired emission band than in the other emission bands. a gain-medium having a plurality of emission bands; first and second resonator mirrors , each resonator mirror having a reflective surface, the resonator mirrors arranged around the gain-medium to form an unstable laser-resonator, the unstable laser-resonator having an optical axis ; wherein the second resonator mirror includes a spectrally-selective element , the spectrally-selective element occupying a less than 30% portion of the reflective surface of the second resonator mirror , the spectrally-selective element located on the optical axis , the spectrally-selective element having a reflection loss of less than about 4% for a desired emission band and a reflection loss of greater than 10% for other emission bands; wherein the first mirror and the spectrally-selective element in the second mirror form a stable laser-resonator on the optical axis, the stable laser-resonator generating laser-radiation predominantly in the desired emission band, laser-radiation generated by the stable laser-resonator leaking into the unstable laser-resonator, thereby seeding the unstable laser-resonator; and wherein energizing the gain-medium produces laser-radiation from the unstable laser-resonator having higher power in the desired emission band than in the other emission bands.
A method of repairing a divertor or first wall surface in a tokamak, the tokamak comprising: a vacuum chamber; a vacuum maintenance system configured to maintain a pressure of less than 25mbar within the vacuum chamber; a first wall and a divertor, each having a surface comprising a refractory metal having a melting point above 2000°C; a refractory metal deposition system comprising: a refractory metal source; a heating system; and a positioning system, the method comprising: the vacuum maintenance system maintaining (S501) a pressure of less than 25 mbar within the vacuum chamber following the end of operation of the tokamak; depositing (S502) the refractory metal onto the divertor or first wall surface via a deposition process comprising: the heating system heating a portion of the refractory metal of the refractory metal source; the positioning system positioning the heat source and refractory metal of the refractory metal source to a target area of the first wall or divertor surface; the positioning system and/or the refractory metal source depositing the portion of the refractory metal against a target area on the divertor or first wall surface to melt the portion of the refractory metal onto the target area. a vacuum chamber; a vacuum maintenance system configured to maintain a pressure of less than 25mbar within the vacuum chamber; a first wall and a divertor, each having a surface comprising a refractory metal having a melting point above 2000°C; a refractory metal deposition system comprising: a refractory metal source; a heating system; and a positioning system, a refractory metal source; a heating system; and a positioning system, the vacuum maintenance system maintaining (S501) a pressure of less than 25 mbar within the vacuum chamber following the end of operation of the tokamak; depositing (S502) the refractory metal onto the divertor or first wall surface via a deposition process comprising: the heating system heating a portion of the refractory metal of the refractory metal source; the positioning system positioning the heat source and refractory metal of the refractory metal source to a target area of the first wall or divertor surface; the positioning system and/or the refractory metal source depositing the portion of the refractory metal against a target area on the divertor or first wall surface to melt the portion of the refractory metal onto the target area. the heating system heating a portion of the refractory metal of the refractory metal source; the positioning system positioning the heat source and refractory metal of the refractory metal source to a target area of the first wall or divertor surface; the positioning system and/or the refractory metal source depositing the portion of the refractory metal against a target area on the divertor or first wall surface to melt the portion of the refractory metal onto the target area.
A method for performing linear or stepped gradient elution on a glatiramer acetate with a high-performance liquid chromatography and determining whether the content of each component of the glatiramer acetate is qualified, comprising the following steps: step : preparing a solution of the glatiramer acetate to be tested; step : performing gradient elution on a sample to be tested with an anion exchange liquid chromatography; step : determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range. step : preparing a solution of the glatiramer acetate to be tested; step : performing gradient elution on a sample to be tested with an anion exchange liquid chromatography; step : determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range.
A structural member comprising a coupling region where a fitting and a beam section of the structural member are coupled together by a nipping sleeve of the structural member , the fitting comprises a nipple arranged to fit into an open end of the beam section while a portion of the fitting remains outside of the beam section , and the nipple comprises at least one anchoring region , the nipping sleeve being arranged to press at least a portion of the beam section against the anchoring region to form the coupling, characterized in that the anchoring region comprising a generally planar face in form of a localized region on the nipple's outer periphery, and the anchoring region being arranged to resist relative movements between the beam section and fitting about a central axis X of the fitting and generally along the central axis X by provision of bulging and/or step-like formations located along or within the anchor region . the fitting comprises a nipple arranged to fit into an open end of the beam section while a portion of the fitting remains outside of the beam section , and the nipple comprises at least one anchoring region , the nipping sleeve being arranged to press at least a portion of the beam section against the anchoring region to form the coupling, characterized in that the anchoring region comprising a generally planar face in form of a localized region on the nipple's outer periphery, and the anchoring region being arranged to resist relative movements between the beam section and fitting about a central axis X of the fitting and generally along the central axis X by provision of bulging and/or step-like formations located along or within the anchor region .
A system (52; 70; 110; 150; 190) comprising: a blood reservoir (56; 72; 112; 152; 196) having a bottom and configured to hold blood; a differential pressure sensor (58; 76; 116; 156; 196) coupled to the bottom of the blood reservoir and configured to sense a pressure difference between pressure exerted on the differential pressure sensor by the blood and pressure exerted on the blood in the blood reservoir (56; 72; 112; 152; 196) and to provide at least one signal that indicates a blood level in the blood reservoir (56; 72; 112; 152; 196); and a controller (60; 78; 118; 160; 200) configured to receive the at least one signal and determine a blood volume in the blood reservoir (56; 72; 112; 152; 196) based on the at least one signal, the controller (60; 78; 118; 160; 200) configured to provide at least one of a blood level signal that indicates the blood level in the blood reservoir and a blood volume signal that indicates the blood volume in the blood reservoir (56; 72; 112; 152; 196), characterised in that the differential pressure sensor (58; 76; 116; 156; 196) is integrated into the bottom of the blood reservoir (56; 72; 112; 152; 196). a blood reservoir (56; 72; 112; 152; 196) having a bottom and configured to hold blood; a differential pressure sensor (58; 76; 116; 156; 196) coupled to the bottom of the blood reservoir and configured to sense a pressure difference between pressure exerted on the differential pressure sensor by the blood and pressure exerted on the blood in the blood reservoir (56; 72; 112; 152; 196) and to provide at least one signal that indicates a blood level in the blood reservoir (56; 72; 112; 152; 196); and a controller (60; 78; 118; 160; 200) configured to receive the at least one signal and determine a blood volume in the blood reservoir (56; 72; 112; 152; 196) based on the at least one signal, the controller (60; 78; 118; 160; 200) configured to provide at least one of a blood level signal that indicates the blood level in the blood reservoir and a blood volume signal that indicates the blood volume in the blood reservoir (56; 72; 112; 152; 196), characterised in that the differential pressure sensor (58; 76; 116; 156; 196) is integrated into the bottom of the blood reservoir (56; 72; 112; 152; 196).
A method comprising: identifying, via a processor, a media path associated with a communication session , wherein the media path is identified based on real-time transport control protocol messages propagated from nodes in the media path to a plurality of real-time transport control protocol collectors; receiving, via the processor, at a centralized location and from the plurality of real-time transport control protocol collectors, a plurality of media leg quality measurement factors contained in the real-time transport control protocol messages , each of the plurality of media leg quality measurement factors being associated with each of a plurality of media legs in the media path, wherein the media path is divided into the plurality of media legs by segments residing between nodes on the media path; integrating, via the processor, the plurality of media leg quality measurement factors; determining, via the processor, an end-to-end performance of the media path based on the integration of the plurality of media leg quality measurement factors; and generating an indication based on the end-to-end performance of the media path. identifying, via a processor, a media path associated with a communication session , wherein the media path is identified based on real-time transport control protocol messages propagated from nodes in the media path to a plurality of real-time transport control protocol collectors; receiving, via the processor, at a centralized location and from the plurality of real-time transport control protocol collectors, a plurality of media leg quality measurement factors contained in the real-time transport control protocol messages , each of the plurality of media leg quality measurement factors being associated with each of a plurality of media legs in the media path, wherein the media path is divided into the plurality of media legs by segments residing between nodes on the media path; integrating, via the processor, the plurality of media leg quality measurement factors; determining, via the processor, an end-to-end performance of the media path based on the integration of the plurality of media leg quality measurement factors; and generating an indication based on the end-to-end performance of the media path.
Lower shell obtained by moulding a plastics material for a ski boot, said lower shell being intended to envelop a foot or part of a foot and comprising a first part made from a first material and a second part made from a second material, said first material being based on polyurethane and having a first level of flexural stiffness, or flexural modulus, of between 150 and 1000 MPa, which is lower than the level of flexural stiffness, or flexural modulus, of the second material, which is based on polyamide and is between 200 and 2000 MPa.
A catalyst for the oxidation of NO, for the oxidation of ammonia and for the selective catalytic reduction of NOx, comprising (i) a flow-through substrate comprising an inlet end, an outlet end, a substrate axial length extending from the inlet end to the outlet end and a plurality of passages defined by internal walls of the flow-through substrate extending therethrough, wherein the interface between the passages and the internal walls is defined by the surface of the internal walls; (ii) a first coating comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iii) a second coating comprising a platinum group metal component supported on a non-zeolitic oxidic material and further comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iv) a third coating comprising a platinum group metal component supported on an oxidic material; wherein the third coating is disposed on the surface of the internal walls over z % of the axial length of the substrate from the outlet end to the inlet end, with z being in the range of from 20 to 80; wherein the second coating extends over y % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the surface of the internal walls, with y being in the range of from 20 to 80; wherein the first coating extends over x % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the second coating and on the third coating, with x being in the range of from 95 to 100. (i) a flow-through substrate comprising an inlet end, an outlet end, a substrate axial length extending from the inlet end to the outlet end and a plurality of passages defined by internal walls of the flow-through substrate extending therethrough, wherein the interface between the passages and the internal walls is defined by the surface of the internal walls; (ii) a first coating comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iii) a second coating comprising a platinum group metal component supported on a non-zeolitic oxidic material and further comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iv) a third coating comprising a platinum group metal component supported on an oxidic material; wherein the third coating is disposed on the surface of the internal walls over z % of the axial length of the substrate from the outlet end to the inlet end, with z being in the range of from 20 to 80; wherein the second coating extends over y % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the surface of the internal walls, with y being in the range of from 20 to 80; wherein the first coating extends over x % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the second coating and on the third coating, with x being in the range of from 95 to 100.