mhurhangee/ep-ind-claims huggingface dataset:
A method in a base station for calculating a power relating to a first and a second radio access, the base station communicating with a number of user equipments (120, 121, 122) using the first radio access, comprising: estimating a statistic power distribution of transmit power to said user equipments (120, 121, 122) using the first radio access during a time interval, calculating a margin of power, to be allocated for a subsequent user equipment using the first radio access and not to be shared with the second radio access, based on the estimated statistic power distribution, calculating a power to be shared with the second radio access, based on said margin of power, characterized in that the action of calculating the power to be shared with the second radio access is performed by deducting a total of transmit power used during the time interval of the first radio access and said margin of power, from an allocated power of the first radio access. estimating a statistic power distribution of transmit power to said user equipments (120, 121, 122) using the first radio access during a time interval, calculating a margin of power, to be allocated for a subsequent user equipment using the first radio access and not to be shared with the second radio access, based on the estimated statistic power distribution, calculating a power to be shared with the second radio access, based on said margin of power, characterized in that the action of calculating the power to be shared with the second radio access is performed by deducting a total of transmit power used during the time interval of the first radio access and said margin of power, from an allocated power of the first radio access.
A method of forming a flux regulated machine comprising the steps of: winding stator windings (152, 154) into slots in an outer core having a plurality of radially inwardly extending tooth pieces that are circumferentially spaced, and which define the slots; winding control coils around an inner core; and characterized by: inserting said inner core radially within said outer core such that said tooth pieces contact said inner core, and such that said control coils extend circumferentially across said slots to close the slots; wherein said inner core is formed of a magnetic material different from that of said outer core; wherein said tooth pieces have radially innermost surfaces (130, 132) which are at an angle that is non-perpendicular to a radial direction through the tooth piece, said inner core having mating surfaces. winding stator windings (152, 154) into slots in an outer core having a plurality of radially inwardly extending tooth pieces that are circumferentially spaced, and which define the slots; winding control coils around an inner core; and characterized by: inserting said inner core radially within said outer core such that said tooth pieces contact said inner core, and such that said control coils extend circumferentially across said slots to close the slots; wherein said inner core is formed of a magnetic material different from that of said outer core; wherein said tooth pieces have radially innermost surfaces (130, 132) which are at an angle that is non-perpendicular to a radial direction through the tooth piece, said inner core having mating surfaces.
Device for parallel dispensing of a print medium onto a substrate, in particular for producing one or more conductor tracks on a semiconductor substrate, with a printing unit which comprises a multitude of dispenser nozzles (17, 18, 19, 24, 25) for simultaneous discharge of the print medium, and a driving means formed to generate a relative movement between the printing unit and the substrate in a movement direction, wherein at least a first dispenser nozzle and a second dispenser nozzle are arranged spaced apart from one another transversely in relation to the movement direction, characterized in that the first dispenser nozzle and a third dispenser nozzle of the printing unit are arranged spaced apart from one another along a common first longitudinal axis at a first nozzle spacing, wherein the first longitudinal axis runs parallel to the movement direction.
An absorbent article, comprising: a natural fiber cake comprising a cellulosic material comprising a mixture of plant pulp and plant fibers; and further comprising: a permeable top sheet; a water-insoluble back sheet wherein the natural fiber cake is located between the permeable top sheet and the water-insoluble back sheet; and a superabsorbent polymer, wherein the absorbent article is biodegradable; wherein the natural fiber cake comprises from 60 to 99 weight percent of the plant pulp and from 1 to 40 weight percent of the plant fibers, the plant fibers having a length of from 20 mm to 100 mm; wherein the plant pulp and the plant fibers are derived from a banana plant. a natural fiber cake comprising a cellulosic material comprising a mixture of plant pulp and plant fibers; and further comprising: a permeable top sheet; a water-insoluble back sheet wherein the natural fiber cake is located between the permeable top sheet and the water-insoluble back sheet; and a superabsorbent polymer, wherein the absorbent article is biodegradable; a permeable top sheet; a water-insoluble back sheet wherein the natural fiber cake is located between the permeable top sheet and the water-insoluble back sheet; and a superabsorbent polymer, wherein the absorbent article is biodegradable; wherein the natural fiber cake comprises from 60 to 99 weight percent of the plant pulp and from 1 to 40 weight percent of the plant fibers, the plant fibers having a length of from 20 mm to 100 mm; wherein the plant pulp and the plant fibers are derived from a banana plant.
An antibacterial agent for use in treating an individual infected with a drug-resistant bacteria, wherein the antibacterial agent is a compound represented by the following General Formula: where R 1 represents OH or H and R 2 represents H, and wherein the antibacterial agent for drug-resistant bacteria is effective to drug-resistant bacteria resistant to at least one drug.
A method performed by a user equipment, UE, the method comprising: • determining whether to pursue grant free transmission in accordance with a size of at least one packet in a first buffer of at least one buffer; • determining a size of a grant free transport block, GFTB, in accordance with a configuration of radio resources available for grant free transmission in instances where grant free transmission is to be utilized (S 904); • populating the GFTB with first data from at least one of the buffers to produce a populated GFTB (S 906); and • transferring the GFTB from a media access control, MAC, layer to a physical layer, PHY, (S 912), characterized in further comprising: • disabling scheduling requests, SRs, from a time of beginning populating the GFTB to a time of transmitting the GFTB. • determining whether to pursue grant free transmission in accordance with a size of at least one packet in a first buffer of at least one buffer; • determining a size of a grant free transport block, GFTB, in accordance with a configuration of radio resources available for grant free transmission in instances where grant free transmission is to be utilized (S 904); • populating the GFTB with first data from at least one of the buffers to produce a populated GFTB (S 906); and • transferring the GFTB from a media access control, MAC, layer to a physical layer, PHY, (S 912), • disabling scheduling requests, SRs, from a time of beginning populating the GFTB to a time of transmitting the GFTB.
A method, comprising: informing, by an apparatus in a trusted wireless local area network, in a request, an authentication server regarding at least one access mode for a user equipment, wherein the at least one access mode is supported by the trusted wireless local area network; receiving, by the apparatus, a response from the authentication server in response to the request, said response comprising an indication of at least one permitted access mode of the at least one access mode for said user equipment; selecting, by the apparatus, an access mode of the at least one access mode to use with respect to the user equipment based on the response received from the authentication server in response to the request; and granting, by the apparatus, the selected access mode to the user equipment. informing, by an apparatus in a trusted wireless local area network, in a request, an authentication server regarding at least one access mode for a user equipment, wherein the at least one access mode is supported by the trusted wireless local area network; receiving, by the apparatus, a response from the authentication server in response to the request, said response comprising an indication of at least one permitted access mode of the at least one access mode for said user equipment; selecting, by the apparatus, an access mode of the at least one access mode to use with respect to the user equipment based on the response received from the authentication server in response to the request; and granting, by the apparatus, the selected access mode to the user equipment.
A method for communicating between a first device and a second device of a building control system, the method comprising: wirelessly communicating between the first device and the second device during scheduled communication times, placing the second device in a listening state during the scheduled communication times; placing the second device in a non-listening state between at least some of the scheduled communication times; receiving a plurality of user inputs each at a user interaction time, wherein each of the plurality of user inputs cause a corresponding communication between the first device and the second device; and identifying one or more active user input periods of a day and one or more inactive user input periods of the day by determining a pattern of user inputs; determining the scheduled communication times based at least on the pattern of user inputs; determining the frequency of scheduled communication times based at least on the pattern of user inputs. wirelessly communicating between the first device and the second device during scheduled communication times, placing the second device in a listening state during the scheduled communication times; placing the second device in a non-listening state between at least some of the scheduled communication times; receiving a plurality of user inputs each at a user interaction time, wherein each of the plurality of user inputs cause a corresponding communication between the first device and the second device; and identifying one or more active user input periods of a day and one or more inactive user input periods of the day by determining a pattern of user inputs; determining the scheduled communication times based at least on the pattern of user inputs; determining the frequency of scheduled communication times based at least on the pattern of user inputs. identifying one or more active user input periods of a day and one or more inactive user input periods of the day by determining a pattern of user inputs; determining the scheduled communication times based at least on the pattern of user inputs; determining the frequency of scheduled communication times based at least on the pattern of user inputs.
Aft pylon fairing of a suspension system for an engine, designed to be inserted between a wing of an aircraft and said engine, said fairing forming a box comprising a main structure extending along a longitudinal direction of the fairing and integrating two side panels connected to each other, the fairing also comprising a heat protection deck provided with an outer surface that delimits a core engine flow from said engine, said heat protection deck being mounted on said main structure through connection means, characterised in that said connection means comprise a plurality of tabs each comprising a plane main portion the width of which is oriented parallel to the transverse direction of the fairing, said plane portion being oriented such that in a section along any plane parallel to the longitudinal and vertical directions passing through the plane main portion, this plane main portion is in the form of a straight segment locally orthogonal to said heat protection deck, and in that said tabs are designed so that they can deform to accompany displacement of said heat protection deck relative to said main structure of the fairing if there is differential thermal expansion between these two entities.
A device comprising: a magnetoresistive sensor configured to generate a signal indicative of an angular position of a magnetic field, the signal having an angular range of 180 degrees; a first differential Hall sensor pair (36, 38) comprising a first Hall sensor and a second Hall sensor, wherein the first differential Hall sensor pair (36, 38) is configured to generate a signal indicative of a polarity of the magnetic field; and a second differential Hall sensor pair (37, 38; 36, 37) comprising at least a third Hall sensor, wherein the second differential Hall sensor pair (37, 38; 36, 37) is configured to generate a signal indicative of a polarity of the magnetic field; wherein the second differential Hall sensor pair (37, 38; 36, 37) comprises at least one of the first Hall sensor or the second Hall sensor, and the third Hall sensor. a magnetoresistive sensor configured to generate a signal indicative of an angular position of a magnetic field, the signal having an angular range of 180 degrees; a first differential Hall sensor pair (36, 38) comprising a first Hall sensor and a second Hall sensor, wherein the first differential Hall sensor pair (36, 38) is configured to generate a signal indicative of a polarity of the magnetic field; and a second differential Hall sensor pair (37, 38; 36, 37) comprising at least a third Hall sensor, wherein the second differential Hall sensor pair (37, 38; 36, 37) is configured to generate a signal indicative of a polarity of the magnetic field; wherein the second differential Hall sensor pair (37, 38; 36, 37) comprises at least one of the first Hall sensor or the second Hall sensor, and the third Hall sensor.
Internal combustion engine of a reciprocating piston design with only one inlet valve which is arranged in a cylinder head of a cylinder and to which an inlet line is connected, via which combustion air can be fed to the cylinder, with a compressed air store, from which compressed air can be introduced via a controllable valve into the cylinder of the internal combustion engine, the internal combustion engine having a shut-off element in the inlet line for shutting off the through flow cross section of the inlet line, characterized in that the valve and the shut-off element can be controlled in a manner which is dependent on one another and on the required power output of the internal combustion engine, in such a way that, on the basis of a control signal, either additional compressed air can be fed from the compressed air store into a region of the inlet line, in which region the inlet valve is arranged, and which region is restricted substantially to the cylinder head in the case of the shut-off element being situated in its closed position, and the torque can be increased in the case of an increased injection quantity, it being possible for the inlet valve to be moved briefly again into an open position during the compression stroke by means of an actuating element which defines its movement, during which the compressed air can be introduced from the compressed air store via the control valve into the cylinder, and the shut-off element is in its closed position, or, in the case of a failure of a compressor of an exhaust gas turbocharger which has the compressor and an exhaust gas turbine, the entire combustion air can be fed from the compressed air store to the cylinder, and the exhaust gas turbine then drives an additional compressor for feeding the compressed air store.
An absorbent article (10, 20, 300, 500, 600) comprising an absorbent core (101, 501, 601) sandwiched between a liquid permeable topsheet (520, 620) and a liquid impermeable backsheet (521, 621), and an acquisition distribution system (201, 522, 622) positioned between said topsheet (520, 620) and said absorbent core (101, 501, 601), wherein the absorbent core (101, 501, 601) comprises absorbent material selected from the group consisting of cellulose fibers, superabsorbent polymers and combinations thereof, wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material, and wherein a top layer of said core wrap is adhered to a bottom layer of said core wrap to form one or more channels substantially free of said absorbent material, wherein said channels have a length extending along a longitudinal axis and the absorbent core (101, 501, 601) has a length extending along said longitudinal axis and wherein the length of said channels is from 10% to 95% of the length of said absorbent core (101, 501, 601) and wherein said channels each follow a substantially continuous path such as from a first end of a channel to a second end of the same channel characterized in that the acquisition distribution system (201, 522, 622) is multi-layered and comprises at least one spunbond layer and at least one meltblown layer, and wherein said acquisition distribution system (201, 522, 622) is positioned between said absorbent core (101, 501, 601) and said topsheet (520, 620) such that said spunbond and/or meltblown layers are in direct contact with said absorbent core (101, 501, 601) and said topsheet (520, 620), and in that the acquisition distribution system (201, 522, 622) is the top layer of the core wrap, wherein the acquisition distribution system (201, 522, 622) comprises synthetic fibers, wherein said synthetic fibers are comprised at a level of greater than 80%wt by weight of said acquisition distribution layer (201, 522, 622), and wherein said acquisition distribution layer (201, 522, 622) has a basis weight of from 15 to 50 g/m 2.
An aqueous hair cleansing composition comprising: (a) greater than 0 to 12% by weight of at least one alkyl poly glucoside; (b) greater than 0 to 10% by weight of at least one betaine compound; (c) greater than 0 to 5% by weight of at least one acyl amino acid, and (d) greater than 0 to 10% by weight of at least one surfactant selected from the group consisting of sodium cocoyl isethionate and sodium lauroyl methyl isethionate, wherein the composition is sulfate free, clear, and has a viscosity of 1500 mPa·s (1500 cP) to 20000 mPa·s (20000 cP); and wherein the composition is free of emulsifiers that are alkoxylated surfactants and polyglycerol esters; free of thickeners that are glycol esters and glycol ethers; free of thickening and stabilizing polymers that are acrylic acid polymers and copolymers; and free of naturally-derived gums and hydrocolloids that are cellulose derivatives, guar, and xanthan gums. (a) greater than 0 to 12% by weight of at least one alkyl poly glucoside; (b) greater than 0 to 10% by weight of at least one betaine compound; (c) greater than 0 to 5% by weight of at least one acyl amino acid, and (d) greater than 0 to 10% by weight of at least one surfactant selected from the group consisting of sodium cocoyl isethionate and sodium lauroyl methyl isethionate, wherein the composition is sulfate free, clear, and has a viscosity of 1500 mPa·s (1500 cP) to 20000 mPa·s (20000 cP); and wherein the composition is free of emulsifiers that are alkoxylated surfactants and polyglycerol esters; free of thickeners that are glycol esters and glycol ethers; free of thickening and stabilizing polymers that are acrylic acid polymers and copolymers; and free of naturally-derived gums and hydrocolloids that are cellulose derivatives, guar, and xanthan gums.
A cross-flow wave making pump, comprising an impeller shell forming a water intake and a water outlet, an impeller assembly pivotally connected to two ends of the impeller shell, and a motor configured for driving the impeller assembly; wherein, the impeller assembly comprises an impeller configured for driving a liquid flow, a first turntable and a second turntable respectively fixed at two ends of the impeller, wherein the first turntable is provided with a shaft rotatably mounted in the impeller shell, the second turntable is provided with a cavity configured for receiving a rotor shaft of the motor; characterized in that, the impeller shell comprises a first sleeve and a second sleeve that are disposed parallel to each other and are connected by an arc-shaped shell, the second sleeve sleeves a stator of the motor, a flow-guiding plate is provided above the arc-shaped shell; the impeller shell further comprises a tongue piece crossing between the first sleeve and the second sleeve and connecting the first sleeve and the second sleeve, a space between the tongue piece and the flow-guiding plate forms the water outlet, a space between the tongue piece and a lower side of the arc-shaped shell forms the water intake; the tongue piece comprises a first tongue piece and a second tongue piece that are disposed parallel to each other, one side of the first tongue piece is connected to a same side of the second tongue piece by a fixed third tongue piece disposed perpendicular to the first tongue piece and the second tongue piece, and a plurality of reinforcing ribs are fixed between the first tongue piece and the second tongue piece.
A computer-implemented method for data anonymization, the method comprising: receiving, by a processing device, raw data (320, 321) from a wellbore operation; anonymizing, by the processing device, the raw data (320, 321) to convert the raw data (320, 321) to anonymized data (322, 323) by non-dimensionalizing the raw data (320, 321); analyzing, by the processing device, the anonymized data (322, 323); and performing an action at the wellbore operation based at least in part on the analysis of the anonymized data (322, 323), wherein the raw data (320, 321) comprise pore pressure data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the pore pressure data by vertical stress data; or wherein the raw data (320, 321) comprise maximum horizontal stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the maximum horizontal stress data by vertical stress data; or wherein the raw data (320, 321) comprise minimum horizontal stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the minimum horizontal stress data by vertical stress data; or wherein the raw data (320, 321) comprise unconfined compressive stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the unconfined compressive stress data by vertical stress data. receiving, by a processing device, raw data (320, 321) from a wellbore operation; anonymizing, by the processing device, the raw data (320, 321) to convert the raw data (320, 321) to anonymized data (322, 323) by non-dimensionalizing the raw data (320, 321); analyzing, by the processing device, the anonymized data (322, 323); and performing an action at the wellbore operation based at least in part on the analysis of the anonymized data (322, 323), wherein the raw data (320, 321) comprise pore pressure data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the pore pressure data by vertical stress data; or wherein the raw data (320, 321) comprise maximum horizontal stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the maximum horizontal stress data by vertical stress data; or wherein the raw data (320, 321) comprise minimum horizontal stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the minimum horizontal stress data by vertical stress data; or wherein the raw data (320, 321) comprise unconfined compressive stress data, and wherein anonymizing the data by non-dimensionalizing the data comprises dividing the unconfined compressive stress data by vertical stress data.