mhurhangee/patent-ind-claim-en huggingface dataset:
Concealed hinge for attaching a leaf of a window or door in a fixed frame that is composed of frame profiles , whereby the hinge contains a frame section and a leaf section and whereby the leaf section is intended to be attached to the leaf and is provided with a hook-shaped part for connecting with the frame section and whereby the frame section is intended to be attached to a wall of the frame profile and to this end is provided at each end with a flange and whereby the frame section is provided with a recess for the hook-shaped part of the leaf section which is hingeably connected with the frame section by means of a shaft , whereby the frame section is manufactured from an extruded basic profile with a first wall and at least a first channel at a distance (D) from said first wall for the shaft of the hinge or a profiling of the first wall in which such channel can be provided, whereby the basic profile is removed at both its head ends over a length up to said first wall to form said flanges and whereby the first wall and the first channel or the profiling provided for said channel are removed in a central section to form said recess for the hook-shaped part of the leaf section and whereby the remaining section of the first channel or of the profiling after fitting a first channel forms a passage for the shaft of the hinge , whereby the frame section is intended to be mounted in a recess of the frame profile provided for this purpose, whereby the hinge and the recess are dimensioned such that the hinge is slideable upward over a certain length in the recess of the frame profile , whereby in said flanges , holes are provided for screws or bolts for attachment of the flanges against the frame profile , whereby at least one of the holes in the flanges is a slotted hole which extends longitudinally (X-X') relative to the basic profile for a possible height adjustment of the frame section in mounted condition, wherein for the height adjustment of the frame section the basic profile is provided with a second channel which is removed on the level of the central recess in the frame section and in which an adjusting screw is fitted.
An inflatable device comprising: a top sheet of material ; a bottom sheet of material , wherein the top sheet of material is connected to the bottom sheet of material thereby defining a cavity therebetween to be inflated, a plurality of passages in the bottom sheet extending from the cavity to an exterior of the device , wherein the passages are configured to permit air to pass from the cavity to the exterior of the device and to flow between a bottom surface of the device and a supporting surface upon which the device is configured to rest; a plurality of inflation-limiting members connecting the top sheet to the bottom sheet , and an input configured for receiving air to inflate the device , the inflatable device being characterized in that each inflation-limiting member comprises connection areas between the top sheet and the bottom sheet arranged in a plurality of concentric connection shapes. a top sheet of material ; a bottom sheet of material , wherein the top sheet of material is connected to the bottom sheet of material thereby defining a cavity therebetween to be inflated, a plurality of passages in the bottom sheet extending from the cavity to an exterior of the device , wherein the passages are configured to permit air to pass from the cavity to the exterior of the device and to flow between a bottom surface of the device and a supporting surface upon which the device is configured to rest; a plurality of inflation-limiting members connecting the top sheet to the bottom sheet , and an input configured for receiving air to inflate the device , the inflatable device being characterized in that each inflation-limiting member comprises connection areas between the top sheet and the bottom sheet arranged in a plurality of concentric connection shapes.
A polyester comprising: at least two different diacid residues comprising, based on the total moles of the at least two diacid residues: 20 to 80 mole percent of a residue of at least one aromatic dicarboxylic acid; and at least two different diol residues comprising, based of the total moles of the at least two different diol residues: 0.1 to 10 mole percent of a diol residue comprising a pendant group containing an alkenyl group, wherein the residue of the at least one aromatic dicarboxylic acid comprises a residue of at least one of isophthalic acid, phthalic acid, terephthalic acid, bibenzoic acid, and naphthalic acid, and wherein the polyester is a pressure-sensitive adhesive. at least two different diacid residues comprising, based on the total moles of the at least two diacid residues: 20 to 80 mole percent of a residue of at least one aromatic dicarboxylic acid; and at least two different diol residues comprising, based of the total moles of the at least two different diol residues: 0.1 to 10 mole percent of a diol residue comprising a pendant group containing an alkenyl group, wherein the residue of the at least one aromatic dicarboxylic acid comprises a residue of at least one of isophthalic acid, phthalic acid, terephthalic acid, bibenzoic acid, and naphthalic acid, and wherein the polyester is a pressure-sensitive adhesive.
A centering spring assembly (60;60a) for a turbomachine , comprising: a damper beam ; a bearing support ; a spanner nut , wherein at least a portion (O) of the damper beam axially overlaps at least a portion of the spanner nut relative to a rotational axis (A) of the turbomachine ; and a radial flange (120;120a) directly connecting the damper beam to the bearing support ; wherein the radial flange (120;120a) connects to the bearing support at a first position and the radial flange (120;120a) connects to the damper beam at a second position ; characterised in that : the second position is downstream from the first position relative to a direction of flow through the turbomachine . a damper beam ; a bearing support ; a spanner nut , wherein at least a portion (O) of the damper beam axially overlaps at least a portion of the spanner nut relative to a rotational axis (A) of the turbomachine ; and a radial flange (120;120a) directly connecting the damper beam to the bearing support ; wherein the radial flange (120;120a) connects to the bearing support at a first position and the radial flange (120;120a) connects to the damper beam at a second position ; characterised in that : the second position is downstream from the first position relative to a direction of flow through the turbomachine .
Method for determining wind speed in the plane of a rotor (PR) of a wind turbine , wherein the following steps are implemented: a) measuring (MES) the rotational speed of said rotor of said wind turbine, the tilt angle of the blades of said wind turbine, and the power generated by a conversion machine of said wind turbine; b) constructing a dynamic model of said wind turbine (MEO) that links the rotational speed of said rotor of said wind turbine to said wind speed in said plane of the rotor, to said tilt angle of said blades of said wind turbine and to said power generated by said conversion machine of said wind turbine; c) constructing a dynamic model of the wind (MVE) by way of a second-order random walk model; and d) determining said wind speed on said plane of said rotor (PR) by way of an unscented Kalman filter applied to said dynamic model of said wind turbine (MEO), to said dynamic model of the wind (MVE), and based on said measurements (MES) of said rotational speed of said rotor, of said tilt angle of said blades of the wind turbine, and of said power generated by said conversion machine of the wind turbine. a) measuring (MES) the rotational speed of said rotor of said wind turbine, the tilt angle of the blades of said wind turbine, and the power generated by a conversion machine of said wind turbine; b) constructing a dynamic model of said wind turbine (MEO) that links the rotational speed of said rotor of said wind turbine to said wind speed in said plane of the rotor, to said tilt angle of said blades of said wind turbine and to said power generated by said conversion machine of said wind turbine; c) constructing a dynamic model of the wind (MVE) by way of a second-order random walk model; and d) determining said wind speed on said plane of said rotor (PR) by way of an unscented Kalman filter applied to said dynamic model of said wind turbine (MEO), to said dynamic model of the wind (MVE), and based on said measurements (MES) of said rotational speed of said rotor, of said tilt angle of said blades of the wind turbine, and of said power generated by said conversion machine of the wind turbine.
A telescopic camera mechanism, comprising a holder having a holding cavity , a camera placed in the holding cavity , a top of the camera provided with a protective cover , wherein the holder is further equipped with a protective cover movement component and a camera telescopic component, wherein the protective cover movement component comprises a rotating motor , a screw rod , and a guide plate ; the screw rod is connected to a lateral face of the holding cavity , the guide plate is sleeved on the screw rod , a top end of the guide plate is fixedly connected to the protective cover ; driven by the rotating motor , the screw rod rotates to drive the guide plate to move on the screw rod along a direction close to or away from the holding cavity to drive the protective cover to move, such that the camera is sheltered or exposed; the camera telescopic component comprises a support spring strip and a poke rod , the support spring strip is connected to a bottom of the camera and is fixedly connected to the holder , the poke rod is movably connected to the holder ; when the guide plate moves such that the camera is entirely exposed, the guide plate applies an acting force to the poke rod to press against the support spring strip , such that the camera extends out of the holding cavity ; when the guide plate moves towards the direction close to the holding cavity , the guide plate relieves the acting force applied to the poke rod , such that the support spring strip drives the camera to retract into the holding cavity . the protective cover movement component comprises a rotating motor , a screw rod , and a guide plate ; the screw rod is connected to a lateral face of the holding cavity , the guide plate is sleeved on the screw rod , a top end of the guide plate is fixedly connected to the protective cover ; driven by the rotating motor , the screw rod rotates to drive the guide plate to move on the screw rod along a direction close to or away from the holding cavity to drive the protective cover to move, such that the camera is sheltered or exposed; the camera telescopic component comprises a support spring strip and a poke rod , the support spring strip is connected to a bottom of the camera and is fixedly connected to the holder , the poke rod is movably connected to the holder ; when the guide plate moves such that the camera is entirely exposed, the guide plate applies an acting force to the poke rod to press against the support spring strip , such that the camera extends out of the holding cavity ; when the guide plate moves towards the direction close to the holding cavity , the guide plate relieves the acting force applied to the poke rod , such that the support spring strip drives the camera to retract into the holding cavity .
An apparatus for densifying and compacting soil and granular materials wherein the apparatus comprises: a drive shaft ; a compaction chamber at a lower end of the drive shaft ; and, one or more diametric restriction elements attached to one or both of an interior or exterior of the compaction chamber , the diametric restriction elements being fabricated from individual chains, cables, or wire rope, or a lattice of vertically and horizontally connected chains, cables, or wire rope; wherein the compaction chamber comprises a pipe, and the drive shaft is fitted into one end of this pipe; characterized in that the drive shaft comprises an I-beam or H-beam configuration that provides a "flow-through" arrangement, wherein soil can flow through the drive shaft and into flow-through passages of the I-beam or H-beam configuration. a drive shaft ; a compaction chamber at a lower end of the drive shaft ; and, one or more diametric restriction elements attached to one or both of an interior or exterior of the compaction chamber , the diametric restriction elements being fabricated from individual chains, cables, or wire rope, or a lattice of vertically and horizontally connected chains, cables, or wire rope; wherein the compaction chamber comprises a pipe, and the drive shaft is fitted into one end of this pipe; characterized in that the drive shaft comprises an I-beam or H-beam configuration that provides a "flow-through" arrangement, wherein soil can flow through the drive shaft and into flow-through passages of the I-beam or H-beam configuration.
A device for a wireless communication terminal comprising: an acquisition unit configured to acquire identification information that identifies a direct connection between two wireless communication terminals and is issued by a management device that is different from the two wireless communication terminals ; and a control unit configured to perform control for the direct connection using the identification information, wherein the device is one wireless communication terminal or a module thereof of the two wireless communication terminals , characterized in that each of the two wireless communication terminals is configured to receive the identification information from the management device , and the control includes authentication of the other wireless communication terminal trying a direct connection with the one wireless communication terminal , wherein the authentication includes verifying whether information provided by the other wireless communication terminal is information corresponding to the identification information, and wherein, when the authentication fails, the control unit rejects the direct connection by the other wireless communication terminal . an acquisition unit configured to acquire identification information that identifies a direct connection between two wireless communication terminals and is issued by a management device that is different from the two wireless communication terminals ; and a control unit configured to perform control for the direct connection using the identification information, wherein the device is one wireless communication terminal or a module thereof of the two wireless communication terminals , characterized in that each of the two wireless communication terminals is configured to receive the identification information from the management device , and the control includes authentication of the other wireless communication terminal trying a direct connection with the one wireless communication terminal , wherein the authentication includes verifying whether information provided by the other wireless communication terminal is information corresponding to the identification information, and wherein, when the authentication fails, the control unit rejects the direct connection by the other wireless communication terminal .
A production method of a crystal form of enzalutamide: comprising a step of crystallizing for obtaining wet crystals of enzalutamide and a step of drying the wet crystals, wherein the method comprises a step of washing using a mixed solvent of a good solvent and a poor solvent after the step of crystallizing, wherein the good solvent is isopropyl acetate and the poor solvent is n-heptane, wherein the proportion of the good solvent and the poor solvent in the mixed solvent is 25:75 to 35:65 in volume ratio, and wherein the crystal form of enzalutamide is A-type having peaks in powder x-ray crystal analysis using CuKα beam at 13.2±0.5, 16.7±0.5, 18.9±0.5, 19.8±0.5, 21.2±0.5, 21.8±0.5, 25.4±0.5 and 26.4±0.5 for a diffraction angle of 2θ. wherein the method comprises a step of washing using a mixed solvent of a good solvent and a poor solvent after the step of crystallizing, wherein the good solvent is isopropyl acetate and the poor solvent is n-heptane, wherein the proportion of the good solvent and the poor solvent in the mixed solvent is 25:75 to 35:65 in volume ratio, and wherein the crystal form of enzalutamide is A-type having peaks in powder x-ray crystal analysis using CuKα beam at 13.2±0.5, 16.7±0.5, 18.9±0.5, 19.8±0.5, 21.2±0.5, 21.8±0.5, 25.4±0.5 and 26.4±0.5 for a diffraction angle of 2θ.
A medical device for retrieving a clot from within a vessel lumen, the device comprising: a delivery wire sized for advancement through a blood vessel, the delivery wire having a distal region and a proximal region; a stent coupled to the distal region of the delivery wire ; and an inverting funnel having a first end portion coupled to the distal region of the delivery wire and a free second end portion , the funnel having (a) a first position in which the first end portion is distal of the second end portion , and (b) a second position in which the second end portion is distal of the first end portion such that the funnel surrounds at least a portion of the stent , wherein, when the medical device is positioned within the vessel lumen such that the stent and the funnel are in an expanded state and the funnel is in the first position, proximal movement of the delivery wire causes the funnel to move from the first position towards the second position. a delivery wire sized for advancement through a blood vessel, the delivery wire having a distal region and a proximal region; a stent coupled to the distal region of the delivery wire ; and an inverting funnel having a first end portion coupled to the distal region of the delivery wire and a free second end portion , the funnel having (a) a first position in which the first end portion is distal of the second end portion , and (b) a second position in which the second end portion is distal of the first end portion such that the funnel surrounds at least a portion of the stent , wherein, when the medical device is positioned within the vessel lumen such that the stent and the funnel are in an expanded state and the funnel is in the first position, proximal movement of the delivery wire causes the funnel to move from the first position towards the second position.
A method for monitoring a tubular for downhole operations defining a tubular axis, comprising: transmitting one or more light signals into one or more optical fibers coupled to the tubular at a one or more attachment points , the one or more optical fibers extending substantially linearly relative to the tubular axis along the tubular ; detecting and processing the one or more light signals to form a data set; determining an induced torsional value of the one or more optical fibers at one of the one or more attachment points ; comparing the data set with predetermined location data describing the one or more attachment points to estimate one or more error values associated with the induced torsional value of the one or more optical fibers at the one of the one or more attachment points ; and combining the data set and the one or more error values to determine one or more selected parameters of the tubular . transmitting one or more light signals into one or more optical fibers coupled to the tubular at a one or more attachment points , the one or more optical fibers extending substantially linearly relative to the tubular axis along the tubular ; detecting and processing the one or more light signals to form a data set; determining an induced torsional value of the one or more optical fibers at one of the one or more attachment points ; comparing the data set with predetermined location data describing the one or more attachment points to estimate one or more error values associated with the induced torsional value of the one or more optical fibers at the one of the one or more attachment points ; and combining the data set and the one or more error values to determine one or more selected parameters of the tubular .
Clutch assembly for a clutch , a transmission or a differential of a drive train of a vehicle, having multi-plate discs for the transmission of a torque (M) on account of an axial power (F Ax ) on the multi-plate discs , characterized in that at least one multi-plate disc has power transmission elements which can be moved in the radial direction (Ra) of the clutch assembly , it being possible for a radial power (F Ra ) to be configured within the clutch assembly by means of the power transmission elements , and it being possible for a torque (M Ra ) to be transmitted within the clutch assembly by means of the power transmission elements .
A ship comprising: a propulsion unit that exerts a propulsion force on a ship hull by power from an engine ; detection means for detecting a current position, a bow direction, and a moving speed of the ship hull ; a brake pedal that limits a moving speed of the ship hull ; a brake sensor that detects a foot-pushing amount on the brake pedal ; and a control device that is connected to the propulsion unit, the detection means , and the brake sensor , the control device being configured to acquire an operating status of the propulsion unit and detection results obtained by the detection means and the brake sensor , and to control the propulsion unit based on the detection results, the control device being configured to change an output of the propulsion unit in accordance with a foot-pushing amount on the brake pedal detected by the brake sensor , characterized in that the control device performs a dynamic positioning control upon the brake sensor detecting manipulation on the brake pedal in a state where a moving speed of the ship hull detected by the detection means is zero.
A copolymer, wherein the copolymer is a random copolymer that consists of units represented by the following Formula 4: in Formula 4, a and b are each an integer of 1 to 3, when a is 2 or more, two or more L1's are the same as or different from each other, when b is 2 or more, two or more L2's are the same as or different from each other, L1 and L2 are the same as or different from each other, and each independently have a conjugated structure, R1 and R2 are the same as or different from each other, and are each independently, as a substituent to be substituted in the conjugated structure of L1 and L2, a straight or branched alkyl group having 1 to 20 carbon atoms; or a straight or branched alkoxy group having 1 to 20 carbon atoms; X1 and X2 are S, and R3 to R5 are the same as or different from each other, and are each independently hydrogen; or a straight or branched alkyl group having 1 to 20 carbon atoms; X1' is the same as X1, R3' is the same as or different from R3, and is each independently the same as a definition of R3, 1 is a molar ratio, and 0 < 1 < 1, m is a molar ratio, and 0 < m < 1, 1 + m = 1, and o is an integer with 0 < o < 1,000. a and b are each an integer of 1 to 3, when a is 2 or more, two or more L1's are the same as or different from each other, when b is 2 or more, two or more L2's are the same as or different from each other, L1 and L2 are the same as or different from each other, and each independently have a conjugated structure, R1 and R2 are the same as or different from each other, and are each independently, as a substituent to be substituted in the conjugated structure of L1 and L2, a straight or branched alkyl group having 1 to 20 carbon atoms; or a straight or branched alkoxy group having 1 to 20 carbon atoms; X1 and X2 are S, and R3 to R5 are the same as or different from each other, and are each independently hydrogen; or a straight or branched alkyl group having 1 to 20 carbon atoms; X1' is the same as X1, R3' is the same as or different from R3, and is each independently the same as a definition of R3, 1 is a molar ratio, and 0 < 1 < 1, m is a molar ratio, and 0 < m < 1, 1 + m = 1, and o is an integer with 0 < o < 1,000.