mhurhangee/patent-ind-claim-en huggingface dataset:
Mould for shaping a material during hardening thereof, having - a deformable surface (2; 3), a first face of which is intended to come into contact with said material in a fluid form, and - a deformation assembly comprising at least one row of at least two fastening points secured to a second face of said deformable surface and associated with at least two tie rods , each of the at least two fastening points is attached by a first pivot connection (7, D1, D2, D3) to an end of a tie rod , each other tie rod end being connected to a rotary plate by a second pivot connection (10, C1, C2, C3), the rotation of said plate causing the position of the first pivot connections to move and the distance between these first pivot connections to be modified, resulting in deformation of the planarity of said surface (2; 3), the tie rods associated with a given row of fastening points moving under the action of the rotation of a given rotary plate , the at least two fastening points are fastened to first ends of longitudinal members , the second ends of said longitudinal members being secured to the second face of the deformable surface at an approximately right angle, the rotation of said plate causing the position of the first connections to move and the orientation of the longitudinal members to be modified, thus applying twists to said surface (2; 3). - a deformable surface (2; 3), a first face of which is intended to come into contact with said material in a fluid form, and - a deformation assembly comprising at least one row of at least two fastening points secured to a second face of said deformable surface and associated with at least two tie rods , each of the at least two fastening points is attached by a first pivot connection (7, D1, D2, D3) to an end of a tie rod , each other tie rod end being connected to a rotary plate by a second pivot connection (10, C1, C2, C3), the rotation of said plate causing the position of the first pivot connections to move and the distance between these first pivot connections to be modified, resulting in deformation of the planarity of said surface (2; 3), the tie rods associated with a given row of fastening points moving under the action of the rotation of a given rotary plate ,
Method for manufacturing a wind turbine blade , comprising: the step of monitoring (S5) a process of infusing and/or curing (S1) a fiber lay-up with resin in a mold , wherein the monitoring (S5) is based on sensor data obtained (S2) from the resin infusion and/or curing process displayed (S4) in an augmented reality device , and wherein the sensor data include a temperature of the mold , of the fiber lay-up arranged in the mold and/or of the resin , and/or the sensor data include a viscosity of the resin , and after the step of monitoring (S5), the step of altering (S6) the resin infusion process by heating the mold based on the monitoring result. the step of monitoring (S5) a process of infusing and/or curing (S1) a fiber lay-up with resin in a mold , wherein the monitoring (S5) is based on sensor data obtained (S2) from the resin infusion and/or curing process displayed (S4) in an augmented reality device , and wherein the sensor data include a temperature of the mold , of the fiber lay-up arranged in the mold and/or of the resin , and/or the sensor data include a viscosity of the resin , and after the step of monitoring (S5), the step of altering (S6) the resin infusion process by heating the mold based on the monitoring result.
A power line communication device comprising a control unit configured to obtain multicast precoding information from at least first beamforming information descriptive for a first transmission channel and second beamforming information descriptive for a second transmission channel , the first beamforming information including a first set of beamforming angles (θ, ψ) corresponding to a first maximum SNR (signal-to-noise ratio) and the first maximum SNR value for the first transmission channel and the second beamforming information including a second set of beamforming angles (θ, ψ) corresponding to a second maximum SNR and the second maximum SNR value for the second transmission channel; a precoder unit configured to beamform at least one signal using the multicast precoding information to obtain at least two precoded signals; and a transmitter circuit for multicasting transmission signals derived from the precoded signals through the at least first and second transmission channels, wherein the transmitter circuit is electrically coupled to the precoder unit; wherein the communication device is a PLC, Power Line Communication, device, wherein the transmitter circuit is configured to multicast the transmission signals through power lines . a control unit configured to obtain multicast precoding information from at least first beamforming information descriptive for a first transmission channel and second beamforming information descriptive for a second transmission channel , the first beamforming information including a first set of beamforming angles (θ, ψ) corresponding to a first maximum SNR (signal-to-noise ratio) and the first maximum SNR value for the first transmission channel and the second beamforming information including a second set of beamforming angles (θ, ψ) corresponding to a second maximum SNR and the second maximum SNR value for the second transmission channel; a precoder unit configured to beamform at least one signal using the multicast precoding information to obtain at least two precoded signals; and a transmitter circuit for multicasting transmission signals derived from the precoded signals through the at least first and second transmission channels, wherein the transmitter circuit is electrically coupled to the precoder unit; wherein the communication device is a PLC, Power Line Communication, device, wherein the transmitter circuit is configured to multicast the transmission signals through power lines .
A wireless power receiver for wirelessly receiving power from a wireless power transmitter , the wireless power receiver comprising: a coil to receive the power; a magnet including an electric steel sheet and configured to generate an intensity of a magnetic flux density; and a shield member disposed on an upper surface of the coil and an upper surface of the electric steel sheet , wherein the coil has an empty central region, wherein the magnet is disposed in the empty central region of the coil , characterized in that the electric steel sheet and the coil are spaced apart from each other, the electric steel sheet has a diameter less than a diameter of the central region, and the electric steel sheet has a thickness equal to or thicker than a thickness of the coil , wherein the coil and the electric steel sheet are disposed on the same surface, and the coil surrounds the electric steel sheet, and wherein the coil and the electric steel sheet are adhered to a back surface of the shielding member by means of an adhesive . a coil to receive the power; a magnet including an electric steel sheet and configured to generate an intensity of a magnetic flux density; and a shield member disposed on an upper surface of the coil and an upper surface of the electric steel sheet , wherein the coil has an empty central region, wherein the magnet is disposed in the empty central region of the coil , characterized in that the electric steel sheet and the coil are spaced apart from each other, the electric steel sheet has a diameter less than a diameter of the central region, and the electric steel sheet has a thickness equal to or thicker than a thickness of the coil , wherein the coil and the electric steel sheet are disposed on the same surface, and the coil surrounds the electric steel sheet, and wherein the coil and the electric steel sheet are adhered to a back surface of the shielding member by means of an adhesive .
A device for changing the breathing gas pressure during artificial respiration depending on a level of the cardiac output , comprising a breathing gas source for dispensing a controlled supply of breathing gas at an overpressure to a patient, at least one sensor apparatus for deriving a level of the cardiac output of a controller for defining the breathing gas pressure depending on the level of the cardiac output , characterized in that the level of the cardiac output , using the sensor apparatus , is derived from the breathing gas flow in consideration of respiratory rate and/or tidal volume or respiratory volume per unit of time and/or respiration time ratio of inspiration to expiration (I:E) and/or derived respiratory events such as apnea and/or hypopnea and/or Cheyne-Stokes (CS) respiration, and in particular the quantity, length, proportion, severity, periodicity thereof, wherein the controller scans a predefined pressure profile in stages and, in the process, using the sensor apparatus , determines a level of the cardiac output in stages in response to the predefined pressure, in order to ascertain an individually optimized pressure.
A method of manufacturing an integrally formed razor blade comprising: - providing a strip having, in cross-section transverse to a long axis, a blade portion (57-59) and a removable portion , wherein weakening holes are provided along the long axis between the blade portion and the removable portion, - separating the blade portion from the removable portion by breaking the strip at the weakening holes, - providing the razor blade with a profile having: • a cutting edge portion extending along a cutting edge portion axis, and having a cutting edge at one end, • a base portion extending along a base portion axis, and having an abutment edge at one end, • a bent portion intermediate the cutting edge portion and the base portion, wherein the abutment edge is corrugated along the long axis, with corrugations with a height (h) measured in a direction extending from the abutment edge towards the bent portion (Y) of at most 0.32 millimeters. - providing a strip having, in cross-section transverse to a long axis, a blade portion (57-59) and a removable portion , wherein weakening holes are provided along the long axis between the blade portion and the removable portion, - separating the blade portion from the removable portion by breaking the strip at the weakening holes, - providing the razor blade with a profile having: • a cutting edge portion extending along a cutting edge portion axis, and having a cutting edge at one end, • a base portion extending along a base portion axis, and having an abutment edge at one end, • a bent portion intermediate the cutting edge portion and the base portion, • a cutting edge portion extending along a cutting edge portion axis, and having a cutting edge at one end, • a base portion extending along a base portion axis, and having an abutment edge at one end, • a bent portion intermediate the cutting edge portion and the base portion,
A method for entering a water slide comprising: receiving, via a control system , a signal that a rider is positioned on an entry platform , wherein the entry platform is configured to support the rider above a water slide entry; providing instructions, via the control system , to a fluid delivery system to deliver fluid within an enclosure to a predetermined fill level when the rider is positioned on the entry platform ; wherein the enclosure defines an enclosed space about the entry platform and is configured to at least partially enclose the rider when the rider is positioned on the entry platform; and triggering, via the control system , the entry platform to release the rider into the water slide entry. receiving, via a control system , a signal that a rider is positioned on an entry platform , wherein the entry platform is configured to support the rider above a water slide entry; providing instructions, via the control system , to a fluid delivery system to deliver fluid within an enclosure to a predetermined fill level when the rider is positioned on the entry platform ; wherein the enclosure defines an enclosed space about the entry platform and is configured to at least partially enclose the rider when the rider is positioned on the entry platform; and triggering, via the control system , the entry platform to release the rider into the water slide entry.
An aircraft comprising: a turbine engine having a gas generator spool and a power spool , the power spool operational to drive a rotor coupled to the power spool ; a first generator coupled to the gas generator spool ; a controller operable to increase a load on the gas generator spool when the gas generator spool is on a speed limit thereby increasing a speed limit margin in order to increase power available from the turbine engine ; and a second generator coupled to the power spool , wherein the controller is operable to transfer an electrical load from the second generator to the first generator to increase the load on the gas generator spool in response to a pilot input for additional power when the turbine engine is on the speed limit by increasing an electrical load on the first generator , characterized in that the aircraft is a vertical take-off and landing aircraft comprising an anti-torque fan driven by an electric motor powered through a hybrid bus connected to the second generator . a turbine engine having a gas generator spool and a power spool , the power spool operational to drive a rotor coupled to the power spool ; a first generator coupled to the gas generator spool ; a controller operable to increase a load on the gas generator spool when the gas generator spool is on a speed limit thereby increasing a speed limit margin in order to increase power available from the turbine engine ; and a second generator coupled to the power spool , wherein the controller is operable to transfer an electrical load from the second generator to the first generator to increase the load on the gas generator spool in response to a pilot input for additional power when the turbine engine is on the speed limit by increasing an electrical load on the first generator , characterized in that the aircraft is a vertical take-off and landing aircraft comprising an anti-torque fan driven by an electric motor powered through a hybrid bus connected to the second generator .
An article of footwear including a sole structure fixedly attached to an upper configured to receive a foot of a wearer, the upper comprising: a skin layer forming at least a portion of an external surface of the upper ; a reinforcing material selectively located internal and adjacent to portions of the skin layer , thereby defining reinforced portions of the skin layer and unreinforced portions of the skin layer ; wherein the reinforcing material is selectively joined with the skin layer at a bonded area by welding, the bonded area having an externally exposed surface that defines a portion of the external surface of the upper and includes compressed reinforcing material deformed by heat and pressure during the welding; wherein the skin layer has a first color and the reinforcing material has a second color that is different from the first color, and wherein the skin layer is formed of a mesh material having openings extending therethrough, and wherein at the bonded area , the mesh material is embedded in the reinforcing material ; and wherein the externally exposed surface of the bonded area includes portions of the reinforcing material , thus providing the externally exposed surface of the bonded area with substantially the same color as the reinforcing material . a skin layer forming at least a portion of an external surface of the upper ; a reinforcing material selectively located internal and adjacent to portions of the skin layer , thereby defining reinforced portions of the skin layer and unreinforced portions of the skin layer ; wherein the reinforcing material is selectively joined with the skin layer at a bonded area by welding, the bonded area having an externally exposed surface that defines a portion of the external surface of the upper and includes compressed reinforcing material deformed by heat and pressure during the welding; wherein the skin layer has a first color and the reinforcing material has a second color that is different from the first color, and wherein the skin layer is formed of a mesh material having openings extending therethrough, and wherein at the bonded area , the mesh material is embedded in the reinforcing material ; and wherein the externally exposed surface of the bonded area includes portions of the reinforcing material , thus providing the externally exposed surface of the bonded area with substantially the same color as the reinforcing material .
Adhesive composition, in particular pressure-sensitive adhesive composition, comprising a base polymer, a rubber and additionally a plasticizer and/or a tackifier, wherein the base polymer contains or is composed of a polyester urethane as principal constituent and wherein the polyester urethane is obtainable by: preparation of a prepolymer by polycondensation from a hydroxy carboxylic acid component, selected from free α-hydroxy carboxylic acids, free β-hydroxy carboxylic acids and cyclic dimers of α-hydroxy carboxylic acids, in the presence of a substoichiometric amount of a diol, either selected from vicinal diols having at least one secondary or tertiary hydroxy group or selected from alkylsubstituted or cycloalkyl-substituted diols branched in the carbon skeleton and having at least 5 carbon atoms, at a temperature greater than 100°C and in the presence of a catalyst, and subsequent reaction of the prepolymer obtained with a diisocyanate, with the result that the free hydroxy groups of the prepolymer react with the isocyanate groups.
A system for dispensing a refrigerant pack comprising: a filling unit for filling refrigerant fluid to an inside of a super absorbent material pack (SAM) thereby producing a refrigerant pack; characterized by : the filling unit configured to inject the refrigerant fluid to an inside of a sealed super absorbent material pack (SAM) previously without refrigerant fluid inside; the system comprising a syringe for: puncturing the super absorbent material pack (SAM); and injecting the refrigerant fluid to the inside of the super absorbent material pack (SAM), thereby producing a refrigerant pack. a filling unit for filling refrigerant fluid to an inside of a super absorbent material pack (SAM) thereby producing a refrigerant pack; characterized by : the filling unit configured to inject the refrigerant fluid to an inside of a sealed super absorbent material pack (SAM) previously without refrigerant fluid inside; the system comprising a syringe for: puncturing the super absorbent material pack (SAM); and injecting the refrigerant fluid to the inside of the super absorbent material pack (SAM), thereby producing a refrigerant pack. the filling unit configured to inject the refrigerant fluid to an inside of a sealed super absorbent material pack (SAM) previously without refrigerant fluid inside; the system comprising a syringe for: puncturing the super absorbent material pack (SAM); and injecting the refrigerant fluid to the inside of the super absorbent material pack (SAM), thereby producing a refrigerant pack. puncturing the super absorbent material pack (SAM); and injecting the refrigerant fluid to the inside of the super absorbent material pack (SAM), thereby producing a refrigerant pack.
A silencer for firearms comprising an attachment part and a muzzle part , where at least one intermediate module element is arranged between said attachment part and muzzle part , characterized in that each of said attachment part , at least one intermediate module element and muzzle part comprises an outer sleeve portion which outer sleeve portion form a part of an outer surface of the silencer , said muzzle part and at least one intermediate module element and attachment part further comprises an inner sleeve portion and a core portion , the space between the core portion and the inner sleeve portion defining at least one cavity for expanded exhaust gas, which inner sleeve portion forms a part of an inner surface of the silencer , said core portion comprising a throughgoing bore and at least one opening connecting the bore with the cavity , said outer sleeve portion and inner sleeve portion of module element being connected through a radial part , said attachment part and radial part being provided with a plurality of axial throughgoing openings around their periphery, wherein, when the silencer is assembled, the space between said outer sleeve portion and inner sleeve portion form a volume defining a first passage for exhaust gases via openings and , and said inner sleeve portion and core portion form a volume defining a second passage for exhaust gases and wherein the muzzle part comprises a radial part provided with a plurality of axial throughgoing openings around a periphery of said radial part , the opening in communication with the first passage.
A method for wireless communications at a user equipment, UE, the method comprising: receiving a first downlink resource configuration for downlink communications in a connected mode; receiving a second downlink resource configuration for downlink communications in an idle mode, the second downlink resource configuration comprising a set of parameters comprising one or more of a frequency hopping indicator or a coverage enhancement, CE, mode indicator for the downlink communications in the idle mode; entering the idle mode; and receiving , while in the idle mode, one or more downlink transmissions according to the first downlink resource configuration or the second downlink resource configuration. receiving a first downlink resource configuration for downlink communications in a connected mode; receiving a second downlink resource configuration for downlink communications in an idle mode, the second downlink resource configuration comprising a set of parameters comprising one or more of a frequency hopping indicator or a coverage enhancement, CE, mode indicator for the downlink communications in the idle mode; entering the idle mode; and receiving , while in the idle mode, one or more downlink transmissions according to the first downlink resource configuration or the second downlink resource configuration.
A (meth)acrylic silicone graft (co)polymer having a unit represented by the following formula (I), a structure represented by the following formula (III) at one terminal, and a structure represented by the following formula (IV) at the other terminal, wherein R 1 is, independently of each other, a hydrogen atom or a methyl group, R 7 is an alkyl group having 1 to 4 carbon atoms, R 8 and R 9 are, independently of each other, a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, R 10 is a hydrogen atom or a methyl group, A is a group having a linear organopolysiloxane structure represented by the following formula or a group having a dendritic organopolysiloxane structure represented by the following formula (2-1) or (2-2), X' is a group as defined for A, and p is an integer such that the (co)polymer has a number average molecular weight of 1,000 to 1,000,000 g/mol as reduced to polystyrene and determined by GPC, wherein Z is a divalent organic group, R 2 is a saturated hydrocarbon group having 1 to 10 carbon atoms or a phenyl group, R 3 is a saturated hydrocarbon group having 1 to 10 carbon atoms, and m is an integer of from 0 to 100, wherein Z is a divalent organic group, a is a number of 0 to 3, Q is a group represented by the following formula , D is a (3 c +1)-valent organopolysiloxanyl group which has a hierachial order of c, 3 c means 3 raised to the power of c, c is an integer of from 1 to 8, wherein R 4 is a saturated hydrocarbon group having 1 to 10 carbon atoms or a phenyl group, R 5 is a saturated hydrocarbon group having 1 to 6 carbon atoms or a phenyl group, R 14 is a hydrogen atom, a saturated hydrocarbon group having 1 to 10 carbon atoms or a phenyl group, a 2 is the number of 0 to 2, and n is an integer of from 2 to 12, and wherein an amount of an impurity monomer(s) is 100 ppm or less as quantified by GC-MS, based on a total weight of the (co)polymer and the monomer(s).