mhurhangee/patent-ind-claim-en huggingface dataset:
A network node in a cellular communications network , comprising: • a plurality, M, of antennas ; • a plurality, R, of Radio Frequency, RF, chains ; • a plurality, R, of phased arrays , each phased array of the plurality of phased arrays comprising: - a plurality, L, of phase shifters comprising inputs all coupled to a respective RF chain of the plurality of RF chains and outputs coupled to a respective subset of the plurality of antennas such that each phase shifter of the plurality of phased arrays is coupled to a different one of the plurality of antennas such that M = R·L; and • a baseband processor configured to: - perform Zero-Forcing, ZF, beamforming on a resultant equivalent channel between the plurality of antennas and a plurality, K, of scheduled wireless devices ; and - adjust phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays according to an Equal Gain Transmission, EGT, scheme, per phased array, wherein the ZF beamforming is dependent on the phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays . • a plurality, M, of antennas ; • a plurality, R, of Radio Frequency, RF, chains ; • a plurality, R, of phased arrays , each phased array of the plurality of phased arrays comprising: - a plurality, L, of phase shifters comprising inputs all coupled to a respective RF chain of the plurality of RF chains and outputs coupled to a respective subset of the plurality of antennas such that each phase shifter of the plurality of phased arrays is coupled to a different one of the plurality of antennas such that M = R·L; and - a plurality, L, of phase shifters comprising inputs all coupled to a respective RF chain of the plurality of RF chains and outputs coupled to a respective subset of the plurality of antennas such that each phase shifter of the plurality of phased arrays is coupled to a different one of the plurality of antennas such that M = R·L; and • a baseband processor configured to: - perform Zero-Forcing, ZF, beamforming on a resultant equivalent channel between the plurality of antennas and a plurality, K, of scheduled wireless devices ; and - adjust phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays according to an Equal Gain Transmission, EGT, scheme, per phased array, wherein the ZF beamforming is dependent on the phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays . - perform Zero-Forcing, ZF, beamforming on a resultant equivalent channel between the plurality of antennas and a plurality, K, of scheduled wireless devices ; and - adjust phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays according to an Equal Gain Transmission, EGT, scheme, per phased array, wherein the ZF beamforming is dependent on the phase-shifts applied by the plurality of phase shifters of the plurality of phased arrays .
A resin composition comprising at least a polyamide (A) and a modified cyclodextrin (B), wherein said modified cyclodextrin (B) is modified with a thermoplastic resin, and wherein said polyamide (A) is blended in an amount of 80 parts by weight or more and 99.9 parts by weight or less and said modified cyclodextrin (B) is blended in an amount of 0.1 parts by weight or more and 20 parts by weight or less with respect to the 100 parts by weight in total of said polyamide (A) and said modified cyclodextrin (B), and wherein the modified cyclodextrin (B) is not cyclodextrin that forms part of a polyrotaxane.
A metal cable having a flat upper (A) and a flat lower (B) surface, comprising at least one hollow integrated riser having a bottom surface (C), said riser extending approximately 90 degrees from one of the flat surfaces of the first metal cable, the hollow riser being configured to house an end of a second metal cable , said riser and the cable being made as one part, without interconnecting welds or joints.
A detection system for detecting an object on a water surface , the detection system comprising: a radio detection and ranging device for coarsely detecting a target water surface area with the object ; and a laser detection and ranging device for detecting the object within the target water surface area , wherein the laser detection and ranging device comprises a laser transmitter for transmitting a modulated laser beam having an oval-shaped laser beam cross-section towards the target water surface area , the modulated laser beam being modulated by a binary pseudo-random coding sequence which is modulated by a square wave sequence, wherein the rate of the square wave sequence is lower than the rate of the binary pseudo-random coding sequence, the laser transmitter being configured to transmit the modulated laser beam having the oval-shaped laser beam cross-section, a laser detector for detecting a reflected laser beam , the reflected laser beam forming a reflected version of the transmitted modulated laser beam , and a processor for detecting the object within the target water surface area upon the basis of the reflected laser beam , wherein the laser detection and ranging device is configured to scan the target water surface area along a horizontal plane for detecting an azimuth of the object within the target water surface area with respect to the detection system , and a vertical plane for detecting an elevation of the object within the target water surface area with respect to the detection system . a radio detection and ranging device for coarsely detecting a target water surface area with the object ; and a laser detection and ranging device for detecting the object within the target water surface area , wherein the laser detection and ranging device comprises a laser transmitter for transmitting a modulated laser beam having an oval-shaped laser beam cross-section towards the target water surface area , the modulated laser beam being modulated by a binary pseudo-random coding sequence which is modulated by a square wave sequence, wherein the rate of the square wave sequence is lower than the rate of the binary pseudo-random coding sequence, the laser transmitter being configured to transmit the modulated laser beam having the oval-shaped laser beam cross-section, a laser detector for detecting a reflected laser beam , the reflected laser beam forming a reflected version of the transmitted modulated laser beam , and a processor for detecting the object within the target water surface area upon the basis of the reflected laser beam , wherein the laser detection and ranging device is configured to scan the target water surface area along a horizontal plane for detecting an azimuth of the object within the target water surface area with respect to the detection system , and a vertical plane for detecting an elevation of the object within the target water surface area with respect to the detection system .
A centrifugal turbomachine comprising: a stationary component ; a rotary component , rotatingly supported in said stationary component ; a sealing arrangement between said rotary component and said stationary component with a radial clearance between the sealing arrangement and the rotary component ; the sealing arrangement is mounted on the stationary component , such that the sealing arrangement and the stationary component can radially move one with respect to the other; a cooling arrangement , configured and designed for delivering a cooling fluid to said sealing arrangement and removing heat therefrom to control the radial clearance between the sealing arrangement and the rotary component .
An apparatus for cleaning a surface comprising: a base positionable on the surface; the base including a support structure operatively coupled to and extending from the base , the support structure forming an arch creating a void beneath the support structure and above a surface of the base ; and a tank removably mounted to the base and located in the void between the support structure and the base , characterized in that the support structure engages the tank . a base positionable on the surface; the base including a support structure operatively coupled to and extending from the base , the support structure forming an arch creating a void beneath the support structure and above a surface of the base ; and a tank removably mounted to the base and located in the void between the support structure and the base , characterized in that the support structure engages the tank .
Method for joining connecting portions of at least two components , in particular vehicle components, wherein the connecting portions are joined to one another exclusively using a fibrous thermoset moulding compound, characterized by the steps of: - introducing into a compression mould the connecting portions to be joined to one another; - introducing into the compression mould, in the region of the join between the connecting portions that is to be established, a fibrous thermoset moulding compound before and/or after the connecting portions to be joined to one another have been introduced into the compression mould; - closing the compression mould after the connecting portions to be joined to one another and the fibrous thermoset moulding compound have been introduced into the compression mould; and - curing the fibrous thermoset moulding compound, wherein at least one cavity is formed at at least one connecting portion before the connecting portions are joined, characterized in that , at the cavity , there is formed at least one undercut which extends transversely to the cavity. - introducing into a compression mould the connecting portions to be joined to one another; - introducing into the compression mould, in the region of the join between the connecting portions that is to be established, a fibrous thermoset moulding compound before and/or after the connecting portions to be joined to one another have been introduced into the compression mould; - closing the compression mould after the connecting portions to be joined to one another and the fibrous thermoset moulding compound have been introduced into the compression mould; and - curing the fibrous thermoset moulding compound, wherein at least one cavity is formed at at least one connecting portion before the connecting portions are joined, characterized in that , at the cavity , there is formed at least one undercut which extends transversely to the cavity.
A recombinant dermatopontin for use in treating a metabolic disease in a subject, wherein the metabolic disease is selected from a group consisting of obesity, morbid obesity, metabolic syndrome, glucose intolerance, insulin resistance, type I diabetes, and type II diabetes.
Variable vacuum capacitor comprising: bellows for supplying electrical current to a movable electrode of the capacitor, the bellows surrounding a volume of heat transfer fluid, and heat exchanger comprising a heat exchange conduit for coolant to flow through so as to cool the heat transfer fluid; characterised by a pump arranged to propel the heat transfer fluid through the bellows , the pump being arranged to propel the heat transfer fluid between the bellows and the heat exchanger . bellows for supplying electrical current to a movable electrode of the capacitor, the bellows surrounding a volume of heat transfer fluid, and heat exchanger comprising a heat exchange conduit for coolant to flow through so as to cool the heat transfer fluid; characterised by a pump arranged to propel the heat transfer fluid through the bellows , the pump being arranged to propel the heat transfer fluid between the bellows and the heat exchanger .
A method of diagnosing early stage degenerative mitral valve disease in a canine, comprising: measuring a normalized relative abundance of a biomarker selected from the group consisting of Erysipelatoclostridium, Ruminococcaceae UCG014, Butyricicoccus, Faecalibacterium, and combinations thereof; and determining that the canine has early stage degenerative mitral valve disease if the Erysipelatoclostridium is from 0 to 0.5 normalized relative abundance, the Ruminococcaceae UCG014 is from 0 to 0.1 normalized relative abundance, the Butyricicoccus is from 0 to 0.1 normalized relative abundance, or the Faecalibacterium is from 0 to 0.1 normalized relative abundance. measuring a normalized relative abundance of a biomarker selected from the group consisting of Erysipelatoclostridium, Ruminococcaceae UCG014, Butyricicoccus, Faecalibacterium, and combinations thereof; and determining that the canine has early stage degenerative mitral valve disease if the Erysipelatoclostridium is from 0 to 0.5 normalized relative abundance, the Ruminococcaceae UCG014 is from 0 to 0.1 normalized relative abundance, the Butyricicoccus is from 0 to 0.1 normalized relative abundance, or the Faecalibacterium is from 0 to 0.1 normalized relative abundance.
A method for managing the hydrogen supply of travelling vehicles from hydrogen dispensed by dispensing stations , characterised in that it comprises the steps of: - a) collecting, by at least two sensors on-board a vehicle , at least two parameters relative to the operation and the driving of the vehicle during its travel, including at least the geographical location of the vehicle and its hydrogen needs, - b) transmitting the parameters relative at least to the hydrogen needs of the vehicle and the geographical location thereof to a control module , - c) collecting, by at least one sensor present at least at one hydrogen dispensing station , at least one parameter relative to the hydrogen available at the hydrogen dispensing station , - d) transmitting this parameter relative to the hydrogen available at the hydrogen dispensing station to the control module , characterised in that it comprises at least the following steps: - e) identifying, by the control module , at least one hydrogen dispensing station that can refuel the vehicle during its travel, - f) informing the vehicle user of at least one hydrogen dispensing station that can refuel the vehicle during its travel and the conditions for refuelling with hydrogen at the identified hydrogen dispensing station . - a) collecting, by at least two sensors on-board a vehicle , at least two parameters relative to the operation and the driving of the vehicle during its travel, including at least the geographical location of the vehicle and its hydrogen needs, - b) transmitting the parameters relative at least to the hydrogen needs of the vehicle and the geographical location thereof to a control module , - c) collecting, by at least one sensor present at least at one hydrogen dispensing station , at least one parameter relative to the hydrogen available at the hydrogen dispensing station , - d) transmitting this parameter relative to the hydrogen available at the hydrogen dispensing station to the control module , characterised in that it comprises at least the following steps: - e) identifying, by the control module , at least one hydrogen dispensing station that can refuel the vehicle during its travel, - f) informing the vehicle user of at least one hydrogen dispensing station that can refuel the vehicle during its travel and the conditions for refuelling with hydrogen at the identified hydrogen dispensing station .
An antenna support adapted to be mounted on an electric circuit card and to carry an antenna that is electrically connected to the card , the support comprising: • a plurality of housings , each adapted to receive the antenna in a distinct orientation; • adjustment means for adjusting the position of the antenna on the card ; • means for fastening the support on the card . • a plurality of housings , each adapted to receive the antenna in a distinct orientation; • adjustment means for adjusting the position of the antenna on the card ; • means for fastening the support on the card .
An image forming apparatus comprising: a first image forming unit including a rotatable first image carrier and a first light-emitting unit , the first light-emitting unit including a first base member and a plurality of first light-emitting devices, the first base member extending in an axial direction of the first image carrier , the plurality of first light-emitting devices being provided on the first base member and being configured to apply light to an outer circumferential surface of the first image carrier ; and a second image forming unit including a rotatable second image carrier and a second light-emitting unit , the second light-emitting unit including a second base member and a plurality of second light-emitting devices, the second base member extending in an axial direction of the second image carrier , the plurality of second light-emitting devices being provided on the second base member and being configured to apply light to an outer circumferential surface of the second image carrier , the image forming apparatus being characterized in that a direction of detaching and attaching of the first light-emitting unit from and to the first image forming unit and a direction of detaching and attaching of the second light-emitting unit from and to the second image forming unit are different from each other. a first image forming unit including a rotatable first image carrier and a first light-emitting unit , the first light-emitting unit including a first base member and a plurality of first light-emitting devices, the first base member extending in an axial direction of the first image carrier , the plurality of first light-emitting devices being provided on the first base member and being configured to apply light to an outer circumferential surface of the first image carrier ; and a second image forming unit including a rotatable second image carrier and a second light-emitting unit , the second light-emitting unit including a second base member and a plurality of second light-emitting devices, the second base member extending in an axial direction of the second image carrier , the plurality of second light-emitting devices being provided on the second base member and being configured to apply light to an outer circumferential surface of the second image carrier , the image forming apparatus being characterized in that a direction of detaching and attaching of the first light-emitting unit from and to the first image forming unit and a direction of detaching and attaching of the second light-emitting unit from and to the second image forming unit are different from each other.
A message decoding method, comprising: receiving , by a receiving end device (12; 800), a second message associated with a first message from a transmitting end device (11; 1000); determining , by the receiving end device (12; 800), a target receiver parameter for decoding the first message in accordance with the second message, wherein the target receiver parameter comprises at least one of a reception beam, equalizer and receiver filter; and decoding , by the receiving end device (12; 800), the first message from the transmitting end device (11; 1000) in accordance with the target receiver parameter, the message decoding method is characterized by when the second message is received within a scheduling time unit corresponding to a predetermined parameter switching indication set having a time unit as subframe or slot, the second message comprises a parameter indication information indicating the target receiver parameter, and there is a gap between the first message and the second message; and when the second message is received beyond the scheduling time unit corresponding to the predetermined parameter switching indication set having a time unit as subframe or slot, the second message does not comprise the parameter indication information, and there is no gap between the first message and the second message. receiving , by a receiving end device (12; 800), a second message associated with a first message from a transmitting end device (11; 1000); determining , by the receiving end device (12; 800), a target receiver parameter for decoding the first message in accordance with the second message, wherein the target receiver parameter comprises at least one of a reception beam, equalizer and receiver filter; and decoding , by the receiving end device (12; 800), the first message from the transmitting end device (11; 1000) in accordance with the target receiver parameter, the message decoding method is characterized by when the second message is received within a scheduling time unit corresponding to a predetermined parameter switching indication set having a time unit as subframe or slot, the second message comprises a parameter indication information indicating the target receiver parameter, and there is a gap between the first message and the second message; and when the second message is received beyond the scheduling time unit corresponding to the predetermined parameter switching indication set having a time unit as subframe or slot, the second message does not comprise the parameter indication information, and there is no gap between the first message and the second message.
Processing equipment for producing ethylene glycol and/or propylene glycol and/or glycerol in a continuous manner from a feed comprising a carbohydrate source in an aqueous liquid and hydrogen, the processing equipment comprising: - a reactor producing a liquid product flow out of the reactor and an off-gas, - a downstream purification section comprising one or more distillation and/or evaporation units for subjecting the liquid product flow out of the reactor to one or more distillation and/or evaporation steps, - a hydrogen production section comprising: o a steam methane reformer (SMR) unit, o a water gas shift reactor (WGS) unit, o a pressure swing adsorption (PSA) unit, wherein the feed to the PSA unit comprises the hydrogen-comprising product stream of the WGS unit and the off-gas of the reactor, and wherein the PSA unit produces a hydrogen product stream comprising at least 95% by weight of hydrogen for feeding to the reactor and a PSA tail gas, wherein the PSA tail gas comprises between 5 and 60% by weight of C1-C3 alkanes which PSA tail gas is fed to the SMR to fuel the steam reforming process in the SMR unit. - a reactor producing a liquid product flow out of the reactor and an off-gas, - a downstream purification section comprising one or more distillation and/or evaporation units for subjecting the liquid product flow out of the reactor to one or more distillation and/or evaporation steps, - a hydrogen production section comprising: o a steam methane reformer (SMR) unit, o a water gas shift reactor (WGS) unit, o a pressure swing adsorption (PSA) unit, o a steam methane reformer (SMR) unit, o a water gas shift reactor (WGS) unit, o a pressure swing adsorption (PSA) unit, wherein the feed to the PSA unit comprises the hydrogen-comprising product stream of the WGS unit and the off-gas of the reactor, and wherein the PSA unit produces a hydrogen product stream comprising at least 95% by weight of hydrogen for feeding to the reactor and a PSA tail gas, wherein the PSA tail gas comprises between 5 and 60% by weight of C1-C3 alkanes which PSA tail gas is fed to the SMR to fuel the steam reforming process in the SMR unit.