mhurhangee/ep-ind-claims huggingface dataset:
A method of a UE (205, 400) comprising: communicating with a base unit (210, 310) using a first uplink carrier and a second uplink carrier concurrently, the first uplink carrier being configured with a first subcarrier spacing, SCS, and the second uplink carrier being configured with a second SCS, wherein the first SCS is smaller than the second SCS; receiving an uplink resource allocation for a first slot on the first uplink carrier wherein the first slot fully overlaps in time with at least two second slots on the second uplink carrier; receiving a second uplink resource allocation for at least one of the at least two second slots on the second uplink carrier that are fully overlapped by the first slot on the first uplink carrier; calculating power headroom, PH, information for the second uplink carrier for a first physical uplink shared channel, PUSCH, scheduled on a first of the at least two second slots that are fully overlapped by the first slot on the first uplink carrier; and reporting the PH information in a power headroom report, PHR in an uplink transmission on the first slot of the first uplink carrier by transmitting on a PUSCH a power headroom report, PHR, that contains the PH information for the first PUSCH scheduled on the first of the at least two second slots that are fully overlapped by the first slot. communicating with a base unit (210, 310) using a first uplink carrier and a second uplink carrier concurrently, the first uplink carrier being configured with a first subcarrier spacing, SCS, and the second uplink carrier being configured with a second SCS, wherein the first SCS is smaller than the second SCS; receiving an uplink resource allocation for a first slot on the first uplink carrier wherein the first slot fully overlaps in time with at least two second slots on the second uplink carrier; receiving a second uplink resource allocation for at least one of the at least two second slots on the second uplink carrier that are fully overlapped by the first slot on the first uplink carrier; calculating power headroom, PH, information for the second uplink carrier for a first physical uplink shared channel, PUSCH, scheduled on a first of the at least two second slots that are fully overlapped by the first slot on the first uplink carrier; and reporting the PH information in a power headroom report, PHR in an uplink transmission on the first slot of the first uplink carrier by transmitting on a PUSCH a power headroom report, PHR, that contains the PH information for the first PUSCH scheduled on the first of the at least two second slots that are fully overlapped by the first slot.
An absorbent article comprising: a liquid-permeable topsheet; a liquid-impermeable backsheet; and an absorption layer arranged between the topsheet and the backsheet, wherein: • a compressed region is formed by a compressing process in the absorption layer on a side facing to the backsheet; and • a plurality of pressed grooves are formed by a pressing process in the absorption layer on a side facing to the topsheet, within a region opposed to the compressed region, wherein • an uncompressed region not subjected to the compressing process is formed along an outer circumference of the compressed region, on an outer side of the compressed region, and wherein • a fiber density of a region on a side facing to the topsheet in the thickness direction of the absorption layer is lower than that of a region on a side facing to the backsheet in the thickness direction of the absorption layer. a liquid-permeable topsheet; a liquid-impermeable backsheet; and an absorption layer arranged between the topsheet and the backsheet, wherein: • a compressed region is formed by a compressing process in the absorption layer on a side facing to the backsheet; and • a plurality of pressed grooves are formed by a pressing process in the absorption layer on a side facing to the topsheet, within a region opposed to the compressed region, wherein • an uncompressed region not subjected to the compressing process is formed along an outer circumference of the compressed region, on an outer side of the compressed region, and wherein • a fiber density of a region on a side facing to the topsheet in the thickness direction of the absorption layer is lower than that of a region on a side facing to the backsheet in the thickness direction of the absorption layer. • a compressed region is formed by a compressing process in the absorption layer on a side facing to the backsheet; and • a plurality of pressed grooves are formed by a pressing process in the absorption layer on a side facing to the topsheet, within a region opposed to the compressed region, wherein • an uncompressed region not subjected to the compressing process is formed along an outer circumference of the compressed region, on an outer side of the compressed region, and wherein • a fiber density of a region on a side facing to the topsheet in the thickness direction of the absorption layer is lower than that of a region on a side facing to the backsheet in the thickness direction of the absorption layer.
A method for efficiently preparing a doped optical fibre preform, the method comprising the following steps: S1, mixing a rare earth material or a functional metal material with a co-doping agent in a certain proportion, and adding a solvent to formulate a doping solution; mixing and evenly stirring a high-purity quartz powder having a purity of over 99% with the doping solution to obtain a doped precursor; drying the doped precursor at a temperature of 100°C-150°C for 12-48 hours, crushing the doped precursor, and screening the crushed precursor through a mesh sieve with over 150 meshes to obtain a doped quartz powder; S2, disposing a target rod in a plasma outward spraying deposition device, introducing the doped quartz powder, oxygen and/or other gaseous co-doping substances into a plasma heating zone in the plasma outward spraying deposition device, and depositing the doped quartz powder onto the surface of the target rod in a certain proportion to form a doped core layer; stopping introduction of the doped quartz powder, introducing the high-purity quartz powder, oxygen and/or other gaseous co-doping substances, and depositing the high-purity quartz powder onto the surface of the doped core layer in a predetermined proportion to form a quartz outer cladding; and S3, removing the target rod, and gradually collapsing the entirety formed from the doped core layer and the quartz outer cladding at a high temperature of 900°C-1800°C to obtain the doped optical fibre preform. S1, mixing a rare earth material or a functional metal material with a co-doping agent in a certain proportion, and adding a solvent to formulate a doping solution; mixing and evenly stirring a high-purity quartz powder having a purity of over 99% with the doping solution to obtain a doped precursor; drying the doped precursor at a temperature of 100°C-150°C for 12-48 hours, crushing the doped precursor, and screening the crushed precursor through a mesh sieve with over 150 meshes to obtain a doped quartz powder; S2, disposing a target rod in a plasma outward spraying deposition device, introducing the doped quartz powder, oxygen and/or other gaseous co-doping substances into a plasma heating zone in the plasma outward spraying deposition device, and depositing the doped quartz powder onto the surface of the target rod in a certain proportion to form a doped core layer; stopping introduction of the doped quartz powder, introducing the high-purity quartz powder, oxygen and/or other gaseous co-doping substances, and depositing the high-purity quartz powder onto the surface of the doped core layer in a predetermined proportion to form a quartz outer cladding; and S3, removing the target rod, and gradually collapsing the entirety formed from the doped core layer and the quartz outer cladding at a high temperature of 900°C-1800°C to obtain the doped optical fibre preform.
A method of controlling operation of a magnetic flowmeter, the method comprising a loop repeatedly executed during normal operation, the loop including: supplying, during an electrode voltage sampling period, a current from a coil driver to a coil (18A, 18B) of the magnetic flowmeter to generate a magnetic field across a process flow; measuring a voltage difference induced between the sensing electrodes by the magnetic field produced by current flow in the coils; producing a flow rate value based on the voltage difference induced between the sensing electrodes; sensing the coil current; sensing the coil voltage during the electrode voltage sampling period; calculating the coil resistance based on the sensed coil current and the sensed coil voltage; calculating coil power using the coil resistance and a coil current setpoint; and evaluating whether the coil power determined exceeds a coil power limit value for a set time period; characterized in interrupting normal operation in response to the coil power exceeding the coil power limit value for the set time period either: i) by shutting down the coil driver, generating an alarm, and waiting for a new coil current configuration; or ii) by lowering the coil current setpoint to reduce coil power and adjusting the coil current to the new setpoint that will maintain coil power below the coil power limit. supplying, during an electrode voltage sampling period, a current from a coil driver to a coil (18A, 18B) of the magnetic flowmeter to generate a magnetic field across a process flow; measuring a voltage difference induced between the sensing electrodes by the magnetic field produced by current flow in the coils; producing a flow rate value based on the voltage difference induced between the sensing electrodes; sensing the coil current; sensing the coil voltage during the electrode voltage sampling period; calculating the coil resistance based on the sensed coil current and the sensed coil voltage; calculating coil power using the coil resistance and a coil current setpoint; and evaluating whether the coil power determined exceeds a coil power limit value for a set time period; characterized in interrupting normal operation in response to the coil power exceeding the coil power limit value for the set time period either: i) by shutting down the coil driver, generating an alarm, and waiting for a new coil current configuration; or ii) by lowering the coil current setpoint to reduce coil power and adjusting the coil current to the new setpoint that will maintain coil power below the coil power limit.
A bicycle bell including a bell body, a thumb-operated clapper or lever adapted to strike the bell body in order to produce a sound, a frame element holding the bell body and the thumb-operated clapper or lever, a mounting mechanism carrying the frame element, the mounting mechanism including a mounting shoe having at least one abutment surface adapted to abut a flat surface of an object, the at least one abutment surface of the mounting shoe spanning at least a distance (d) corresponding to a third of a largest dimension of the bell body, the mounting shoe including a ring-formed element forming the at least one abutment surface, and the ring-formed element being produced from a metal plate in a stamping operation, characterised in that a permanent magnet is arranged in the mounting shoe, in that the permanent magnet is inserted into the ring-formed element flush with the at least one abutment surface of the mounting shoe, and in that an inner edge of the ring-formed element is bent to conform to an edge of the permanent magnet.
A preparation method for making a terbium doped gadolinium borate based green luminescent material, comprising the following steps: step one, selecting the source compounds of alkaline earth metal ion, boric acid radical ion (BO 3 2-), Gd 3+, and Tb 3+ by the stoichiometric ratio, wherein, the stoichiometric ratio is the molar ratio of the corresponding element in the formula of M 3 Gd 1-x Tb x (BO 3) 3, and the source compound of BO 3 2- is over 10%, up to 30% by molar ratio, M is alkaline earth metal element, and x is in a range of 0.005-0.5; step two, mixing the compounds with barium fluoride as a fluxing agent to get a mixture; step three, pre-sintering the mixture and then cooling the mixture to get a pre-sintered matter; step four, grinding the pre-sintered matter, calcining the grinded matter in reducing atmosphere and then cooling to get the terbium doped gadolinium borate based green luminescent material. step one, selecting the source compounds of alkaline earth metal ion, boric acid radical ion (BO 3 2-), Gd 3+, and Tb 3+ by the stoichiometric ratio, wherein, the stoichiometric ratio is the molar ratio of the corresponding element in the formula of M 3 Gd 1-x Tb x (BO 3) 3, and the source compound of BO 3 2- is over 10%, up to 30% by molar ratio, M is alkaline earth metal element, and x is in a range of 0.005-0.5; step two, mixing the compounds with barium fluoride as a fluxing agent to get a mixture; step three, pre-sintering the mixture and then cooling the mixture to get a pre-sintered matter; step four, grinding the pre-sintered matter, calcining the grinded matter in reducing atmosphere and then cooling to get the terbium doped gadolinium borate based green luminescent material.
A water treatment system, comprising a tank for holding source water, said tank comprising: an inlet; a misting spray bar positioned within said tank; at least one vacuum chamber; at least one heating element positioned within said tank; at least one heat exchanger positioned within said tank; at least one vacuum source fluidly connected to said at least one vacuum chamber by external piping (37, 39); at least one power source; and at least one pump; wherein source water is pumped through said inlet to said misting spray bar to create a mist over said at least one heat exchanger, and said at least one heat exchanger evaporates the source water to form water vapor, wherein the water vapor is drawn into said external piping and is compressed by said at least one vacuum source to generate heat, and wherein the compressed water vapor passes through the heat exchanger, heat is transferred from the water vapor to the source water and the source water transitions from a liquid to a vapor. an inlet; a misting spray bar positioned within said tank; at least one vacuum chamber; at least one heating element positioned within said tank; at least one heat exchanger positioned within said tank; at least one vacuum source fluidly connected to said at least one vacuum chamber by external piping (37, 39); at least one power source; and at least one pump;
A method, in at least one network node of a wireless communication system serving a plurality of user equipments, UEs, the method comprising: obtaining a message to be transmitted as a public warning system notification to multiple UEs, via one or more system information blocks; obtaining area information corresponding to the message, the area information indicating an area for which the message is relevant; determining how many system information blocks are needed for transmitting the area information; segmenting the message into a plurality of segments, based on how many system information blocks are needed for transmitting the area information; and transmitting the message and the area information via system information blocks, such that no more than one segment of the message is included in any of the transmitted system information blocks and such that each portion of the area information included in a transmitted system information block is accompanied by a segment of the message. obtaining a message to be transmitted as a public warning system notification to multiple UEs, via one or more system information blocks; obtaining area information corresponding to the message, the area information indicating an area for which the message is relevant; determining how many system information blocks are needed for transmitting the area information; segmenting the message into a plurality of segments, based on how many system information blocks are needed for transmitting the area information; and transmitting the message and the area information via system information blocks, such that no more than one segment of the message is included in any of the transmitted system information blocks and such that each portion of the area information included in a transmitted system information block is accompanied by a segment of the message.
An in vitro method of diagnosing a cyathostomin infection in an equine subject, said method comprising: (a) identifying a level of anti-cyathostomin larval antigen antibodies in a sample wherein said method comprises contacting the sample with one or more cyathostomin larval antigen(s) comprising an amino acid sequence at least 60% identical to the amino acid of SEQ ID NO: 1; wherein a level of anti-cyathostomin larval antigen antibodies in a sample is indicative of a cyathostomin infection.
Method for operating a lighting device for a motor vehicle, which lighting device comprises at least one light emitting diode arrangement having at least one light emitting diode, a power supply for the at least one light emitting diode arrangement and an open-loop or closed-loop control device, the method comprising the following steps: - detecting a driving situation of the motor vehicle and - adjusting the output of the at least one light emitting diode arrangement depending on the driving situation, the lighting device comprising a plurality of light emitting diode arrangements, a power supply being assigned to each light emitting diode arrangement and the output of the light emitting diode arrangements being separately adjusted, the lighting device comprising a light emitting diode arrangement for illumination of a region in front, a light emitting diode arrangement for lateral illumination and a light emitting diode arrangement for increasing the range, which together produce a low-beam light, characterized in that, when the motor vehicle is traveling at low speeds, the light emitting diode arrangement for increasing the range is switched off or operated with reduced output, and in that the light emitting diode arrangement for increasing the range is switched off or operated with reduced output when the vehicle is traveling behind another vehicle, the method being carried out only if the vehicle is located within a built-up area. - detecting a driving situation of the motor vehicle and - adjusting the output of the at least one light emitting diode arrangement depending on the driving situation, the lighting device comprising a plurality of light emitting diode arrangements, a power supply being assigned to each light emitting diode arrangement and the output of the light emitting diode arrangements being separately adjusted, the lighting device comprising a light emitting diode arrangement for illumination of a region in front, a light emitting diode arrangement for lateral illumination and a light emitting diode arrangement for increasing the range, which together produce a low-beam light, characterized in that, when the motor vehicle is traveling at low speeds, the light emitting diode arrangement for increasing the range is switched off or operated with reduced output, and in that the light emitting diode arrangement for increasing the range is switched off or operated with reduced output when the vehicle is traveling behind another vehicle, the method being carried out only if the vehicle is located within a built-up area.
A respiratory mask having a mask body and an articulated connection piece (3, 18) which can be connected to a breathing tube, wherein, to form at least one exhalation gap between two outflow surfaces (10, 28), the outflow surfaces (10, 28) are pushed against one another through pre-tension in substantially tolerance-free manner and wherein a gap height is adjusted by spacer elements (25, 32) between the outflow surfaces (10, 28), characterised in that the one outflow surface is formed in the mask body and the complementary other outflow surface is formed on a retaining ring having a closing means (20, 26), which retaining ring fixes the mask body and connection piece (3, 18) to one another.
An aqueous vinylidene fluoride-based polymer composition comprising: a vinylidene fluoride-based polymer and water; the vinylidene fluoride-based polymer exhibiting a multi-modal scattering intensity distribution in dynamic light scattering in a measurement range of from 1.0 to 999,999.9 nm; the vinylidene fluoride-based polymer comprising a component having a particle size of not greater than 1 μm in a scattering intensity distribution (component A) and a component having a particle size exceeding 1 μm (component B); an average particle size of component A being from 0.02 to 0.5 μm; an average particle size of component B being from 1.1 to 50 μm; and an integrated value of the scattering intensity distribution frequency (f%) in a particle size range of from 1.0 to 1000.0 nm as determined by dynamic light scattering in a measurement range of from 1.0 to 999,999.9 nm being in a range of from 70.0 to 98.7%. a vinylidene fluoride-based polymer and water; the vinylidene fluoride-based polymer exhibiting a multi-modal scattering intensity distribution in dynamic light scattering in a measurement range of from 1.0 to 999,999.9 nm; the vinylidene fluoride-based polymer comprising a component having a particle size of not greater than 1 μm in a scattering intensity distribution (component A) and a component having a particle size exceeding 1 μm (component B); an average particle size of component A being from 0.02 to 0.5 μm; an average particle size of component B being from 1.1 to 50 μm; and an integrated value of the scattering intensity distribution frequency (f%) in a particle size range of from 1.0 to 1000.0 nm as determined by dynamic light scattering in a measurement range of from 1.0 to 999,999.9 nm being in a range of from 70.0 to 98.7%.
A non-transitory computer-readable medium having instructions executable by a processor, the instructions programmed to perform a method comprising: applying a non-local mean filter having a spatial parameter and an intensity parameter to a given electrophysiological signal to provide a first recovered signal and a first residual signal; the method further being characterized by: applying the non-local mean filter to one of the first recovered signal and the first residual signal to provide a feature signal and a second residual signal, the feature signal being extracted from one of the first recovered signal and the first residual signal during the application of the non-local mean filter to one of the first recovered signal and the first residual signal; and combining the first recovered signal with the feature signal to provide a filtered version of the given electrophysiological signal. applying a non-local mean filter having a spatial parameter and an intensity parameter to a given electrophysiological signal to provide a first recovered signal and a first residual signal; the method further being characterized by: applying the non-local mean filter to one of the first recovered signal and the first residual signal to provide a feature signal and a second residual signal, the feature signal being extracted from one of the first recovered signal and the first residual signal during the application of the non-local mean filter to one of the first recovered signal and the first residual signal; and combining the first recovered signal with the feature signal to provide a filtered version of the given electrophysiological signal.