mhurhangee/patent-ind-claim-en huggingface dataset:
A wind turbine , comprising: a tower comprising a lattice structure; a nacelle , the nacelle configured atop the tower; a rotor , the rotor comprising a rotatable hub connected to a main shaft , and at least one rotor blade ; a tower torsion detection system comprising a plurality of sensors located on the tower and circumferentially spaced apart in a common, generally horizontal plane around the tower , the tower torsion detection system operably configured to generate a tower torsion signal corresponding to at least one of: i) an actual torsional movement of the tower, or ii) a torsional loading of the tower; and an asymmetric load control assembly in communication with the tower torsion detection system to receive the tower torsion signal, wherein the asymmetric load control assembly is further configured to use the tower torsional signal to mitigate an asymmetric load acting on the wind turbine , wherein the wind turbine further comprises a rotor blade pitch control system , the asymmetric load control assembly in communication with the pitch control system to mitigate the asymmetric load acting on the rotor by altering a pitch angle of the rotor blade . a tower comprising a lattice structure; a nacelle , the nacelle configured atop the tower; a rotor , the rotor comprising a rotatable hub connected to a main shaft , and at least one rotor blade ; a tower torsion detection system comprising a plurality of sensors located on the tower and circumferentially spaced apart in a common, generally horizontal plane around the tower , the tower torsion detection system operably configured to generate a tower torsion signal corresponding to at least one of: i) an actual torsional movement of the tower, or ii) a torsional loading of the tower; and an asymmetric load control assembly in communication with the tower torsion detection system to receive the tower torsion signal, wherein the asymmetric load control assembly is further configured to use the tower torsional signal to mitigate an asymmetric load acting on the wind turbine , wherein the wind turbine further comprises a rotor blade pitch control system , the asymmetric load control assembly in communication with the pitch control system to mitigate the asymmetric load acting on the rotor by altering a pitch angle of the rotor blade .
A vaccine product comprising: (a) a second immunogenic composition comprising a lentiviral vector comprising a nucleotide sequence that encodes an immunogen or an immunogenic fragment thereof, wherein the lentiviral vector is incorporated into a vector particle, wherein the vector particle comprises a lentiviral vector genome and an alpha virus envelope, wherein the lentiviral vector particle delivers the nucleotide sequence to a dendritic cell, and (b) a first immunogenic composition comprising (i) at least the immunogen or immunogenic fragment thereof and (ii) a TLR4 agonist adjuvant; for use in a method of vaccinating a subject by priming and boosting an immune response to said immunogen in said subject by administration of said first and second compositions to said subject, wherein in said method the second immunogenic composition is administered prior to, or concurrently with, the first immunogenic composition, wherein the TLR4 agonist adjuvant is a compound of the following structure: wherein A1 and A2 are independently selected from the group of hydrogen, phosphate, and phosphate salts and R1, R2, R3, R4, R5, and R6 are independently selected from the group of hydrocarbyl having 3 to 23 carbons, represented by C3-C23. (a) a second immunogenic composition comprising a lentiviral vector comprising a nucleotide sequence that encodes an immunogen or an immunogenic fragment thereof, wherein the lentiviral vector is incorporated into a vector particle, wherein the vector particle comprises a lentiviral vector genome and an alpha virus envelope, wherein the lentiviral vector particle delivers the nucleotide sequence to a dendritic cell, and (b) a first immunogenic composition comprising (i) at least the immunogen or immunogenic fragment thereof and (ii) a TLR4 agonist adjuvant;
A system for presenting a mixed reality experience to one or more users, the system comprising: a head-mounted display device including a display unit for displaying a virtual object ; and a computing system operatively coupled to the display device, the computing system generating the virtual object for display on the display device, the computing system positioning the virtual object as being body locked with respect to the display device for translation movements when it is determined the virtual object is not in a field of view provided by the display device, whereby the virtual object is insensitive to user head movements about at least one of an x-axis and a z-axis, wherein a y-axis is an axis down through the user's head, the z- axis is straight out from the user's face, perpendicular to the y-axis, and the x-axis is perpendicular to both the y and z axes, and the computing system positioning the virtual object as being world locked when it is determined the virtual object is in the field of view provided by the display device. a head-mounted display device including a display unit for displaying a virtual object ; and a computing system operatively coupled to the display device, the computing system generating the virtual object for display on the display device, the computing system positioning the virtual object as being body locked with respect to the display device for translation movements when it is determined the virtual object is not in a field of view provided by the display device, whereby the virtual object is insensitive to user head movements about at least one of an x-axis and a z-axis, wherein a y-axis is an axis down through the user's head, the z- axis is straight out from the user's face, perpendicular to the y-axis, and the x-axis is perpendicular to both the y and z axes, and the computing system positioning the virtual object as being world locked when it is determined the virtual object is in the field of view provided by the display device.
A combustion engine comprising: - a first controllable engine valve arranged to selectively open/close a combustion chamber of a combustion engine , - a cylinder head that is adjacent the combustion chamber , and that is arranged to guide a valve stem of the engine valve , the engine valve being axially displaceable in relation to said cylinder head between a the combustion chamber closed position and a the combustion chamber fully opened position, and - a valve spring retainer that is connected to said valve stem , characterized in that the valve spring retainer partly delimit a gas spring volume , which is in fluid communication with an adjacent gas volume via a port when the engine valve is in the combustion chamber closed position, and which is separated from the adjacent gas volume when the engine valve is in the combustion chamber fully open position, said port being open during at least 25 percentage of the maximal stroke of the engine valve and being closed due to a displacement of the engine valve . - a first controllable engine valve arranged to selectively open/close a combustion chamber of a combustion engine , - a cylinder head that is adjacent the combustion chamber , and that is arranged to guide a valve stem of the engine valve , the engine valve being axially displaceable in relation to said cylinder head between a the combustion chamber closed position and a the combustion chamber fully opened position, and - a valve spring retainer that is connected to said valve stem ,
Device for continuously thermally processing pharmaceutical glass containers , having a housing in which a continuous conveying gap is formed between an inlet region and an outlet region , a conveying device which is configured so that the glass containers are positioned without any mutual contact on an upper side of a driven conveying means of the conveying device and are continuously conveyed from the inlet region to the outlet region in a conveying direction (x), a heating zone which is configured so that the glass containers when passing through the conveying gap in the heating zone are heated to a maximum temperature, a first cooling zone which, when viewed in the conveying direction (x), directly adjoins the heating zone and is configured so that the glass containers when passing through the conveying gap in the first cooling zone cool at a first cooling rate, and at least one separation plate which is provided above the conveying device or above and below the conveying device in order to separate the glass containers in the heating zone and at least in the first cooling zone from heating devices or combined heating and cooling devices and to prevent the introduction of impurities into the conveying gap from above the conveying device or from above and below the conveying device , characterised in that the at least one separation plate comprises an electrically conductive material in order to be inductively heated by the heating devices or combined heating and cooling devices and to supply heat to the glass containers in the heating zone and at least in the first cooling zone . a housing in which a continuous conveying gap is formed between an inlet region and an outlet region , a conveying device which is configured so that the glass containers are positioned without any mutual contact on an upper side of a driven conveying means of the conveying device and are continuously conveyed from the inlet region to the outlet region in a conveying direction (x), a heating zone which is configured so that the glass containers when passing through the conveying gap in the heating zone are heated to a maximum temperature, a first cooling zone which, when viewed in the conveying direction (x), directly adjoins the heating zone and is configured so that the glass containers when passing through the conveying gap in the first cooling zone cool at a first cooling rate, and at least one separation plate which is provided above the conveying device or above and below the conveying device in order to separate the glass containers in the heating zone and at least in the first cooling zone from heating devices or combined heating and cooling devices and to prevent the introduction of impurities into the conveying gap from above the conveying device or from above and below the conveying device , characterised in that the at least one separation plate comprises an electrically conductive material in order to be inductively heated by the heating devices or combined heating and cooling devices and to supply heat to the glass containers in the heating zone and at least in the first cooling zone .
A coaxial direct-detection LIDAR system for measuring velocity, temperature and/or particulate density, the system comprising: - a laser source for emitting a laser light beam having a lasing center frequency along an emission path , - an optical delivery system arranged in the emission path of the laser source , the optical delivery system being arranged for delivering the laser light beam in a measuring direction, the optical delivery system further being configured for collecting a return signal backscattered along the measuring direction, and - a detector system arranged to receive the return signal from the optical delivery system , the detector system comprising a narrowband optical filter and a detector , the narrowband optical filter having a filter center frequency of a pass-band, wherein the center lasing frequency or the center filter frequency can be scanned, characterized by the detector system further comprises an optical small signal pre-amplifier . - a laser source for emitting a laser light beam having a lasing center frequency along an emission path , - an optical delivery system arranged in the emission path of the laser source , the optical delivery system being arranged for delivering the laser light beam in a measuring direction, the optical delivery system further being configured for collecting a return signal backscattered along the measuring direction, and - a detector system arranged to receive the return signal from the optical delivery system , the detector system comprising a narrowband optical filter and a detector , the narrowband optical filter having a filter center frequency of a pass-band,
A method for managing track crossovers implemented by at least one device for tracking mobile objects comprising a group of at least one sensor , the tracking of mobile objects consisting in estimating a set of tracks corresponding to the various mobile objects perceived by the group of at least one sensor , each track corresponding to a set of successive plots representing the motion of a given mobile object, said method being characterized in that it comprises, for each track at a given time, a step Etp1 of testing intended to determine whether the track in question is ambiguous or not at the given time, a track k being considered unambiguous at the time t I if it verifies the relationship: ∑ j = 1 j ≠ k K q ^ l − 1 j g C ^ l − 1 k + A ^ l − 1 k t l − t l − 1 − C ^ l − 1 j − A ^ l − 1 j t l − t l − 1 < ε . r ^ l − 1 k or if for any track j≠k it verifies the relationship: ‖ C ^ l − 1 k + A ^ l − 1 k t l − t l − 1 − C ^ l − 1 j − A ^ l − 1 j t l − t l − 1 ‖ > S in which relationships: K is the total number of tracks created up to the time I-1, q ^ l − 1 j is the estimate of the proportion of plots classified in track j up to the time I-1, g(.) is a probability density, C ^ l − 1 j = Â l − 1 j t l − 1 + B ^ l − 1 j is the estimate of the position vector of the track j at the time t I-1 , Â l − 1 j is the estimate of the velocity of the track j at the time t I-1 and B ^ l − 1 j the estimate of the position vector of the track j at the time t=0, r ^ l − 1 k = q ^ l − 1 " k / c where q ^ l − 1 " k is the estimate of the proportion of the plots X n classified in a track far removed from the track k and c the integral of the range of the admissible measurements |∥.∥| represents the norm defined for a vector X =( x p ) by ‖ X ‖ = sup x p σ p , where σ p is the standard deviation for the p th component of X in the density g(X), S is a preset threshold, and, if the track is ambiguous, a step Etp2 of specific processing of the estimate of the track. K is the total number of tracks created up to the time I-1, q ^ l − 1 j is the estimate of the proportion of plots classified in track j up to the time I-1, g(.) is a probability density, C ^ l − 1 j = Â l − 1 j t l − 1 + B ^ l − 1 j is the estimate of the position vector of the track j at the time t I-1 , Â l − 1 j is the estimate of the velocity of the track j at the time t I-1 and B ^ l − 1 j the estimate of the position vector of the track j at the time t=0, r ^ l − 1 k = q ^ l − 1 " k / c where q ^ l − 1 " k is the estimate of the proportion of the plots X n classified in a track far removed from the track k and c the integral of the range of the admissible measurements |∥.∥| represents the norm defined for a vector X =( x p ) by ‖ X ‖ = sup x p σ p , where σ p is the standard deviation for the p th component of X in the density g(X), S is a preset threshold,
A method of manufacturing a micro-LED display, the method comprising the following successive steps: a first step for forming a composite resin layer on a circuit board ; a second step for aligning a transparent board to which a plurality of micro-LED chips are attached via adhesive on the first circuit board ; a third step of ablating the adhesive by irradiating each of the micro-LED chips with at least one first laser beam (L1); a fourth step of jetting the micro-LED chips to be seated on the composite resin layer ; a fifth step of irradiating electrodes of the seated micro-LED chips with at least one second laser beam (L2); and a sixth step of bonding electrodes of the circuit board and the electrodes of the micro LED chips by means of said irradiating with the at least one second laser beam (L2). a first step for forming a composite resin layer on a circuit board ; a second step for aligning a transparent board to which a plurality of micro-LED chips are attached via adhesive on the first circuit board ; a third step of ablating the adhesive by irradiating each of the micro-LED chips with at least one first laser beam (L1); a fourth step of jetting the micro-LED chips to be seated on the composite resin layer ; a fifth step of irradiating electrodes of the seated micro-LED chips with at least one second laser beam (L2); and a sixth step of bonding electrodes of the circuit board and the electrodes of the micro LED chips by means of said irradiating with the at least one second laser beam (L2).
A method in a cellular terminal , comprising: transmitting a request that requires authentication procedure triggering to a cellular network and responsively receiving from the cellular network an authentication request message with an indication of a selected cryptographic algorithm from a group of a plurality of cryptographic algorithms; decoding the authentication request message to a decoded authentication request according to the selected cryptographic algorithm and based on a shared secret known by the cellular terminal and a network operator of the cellular terminal ; based on the decoded authentication request, the shared secret and the selected cryptographic algorithm, producing and encrypting an authentication response message; and transmitting the authentication response message to the cellular network ; wherein the authentication response message comprises the indication of the selected cryptographic algorithm. transmitting a request that requires authentication procedure triggering to a cellular network and responsively receiving from the cellular network an authentication request message with an indication of a selected cryptographic algorithm from a group of a plurality of cryptographic algorithms; decoding the authentication request message to a decoded authentication request according to the selected cryptographic algorithm and based on a shared secret known by the cellular terminal and a network operator of the cellular terminal ; based on the decoded authentication request, the shared secret and the selected cryptographic algorithm, producing and encrypting an authentication response message; and transmitting the authentication response message to the cellular network ; wherein the authentication response message comprises the indication of the selected cryptographic algorithm.
A method for estimating the signal to interference and noise ratio of a communication link between a first node and a second node (102 i ) of a wireless communication network , said network comprising a number of further communication links between said first node and a number of further nodes of the wireless communication network , the method comprising, at said first node : a) providing first estimates of useful signal powers (S 1 ', S 2 ', S 3 ') on said communication link and on said further communication links; b) providing second estimates of the useful signal power on said communication link and on said further communication links on the basis of, jointly, the first estimate of the useful signal power (S 1 ') on said communication link and the first estimates of the useful signal powers (S 2 ', S 3 ') on said further communication links; and c) estimating said signal to interference and noise ratio (SE1 1 ) as a ratio between the second estimate of the useful signal power on said communication link and a power term comprising a sum of the second estimates of the useful signal powers on the further communication links. a) providing first estimates of useful signal powers (S 1 ', S 2 ', S 3 ') on said communication link and on said further communication links; b) providing second estimates of the useful signal power on said communication link and on said further communication links on the basis of, jointly, the first estimate of the useful signal power (S 1 ') on said communication link and the first estimates of the useful signal powers (S 2 ', S 3 ') on said further communication links; and c) estimating said signal to interference and noise ratio (SE1 1 ) as a ratio between the second estimate of the useful signal power on said communication link and a power term comprising a sum of the second estimates of the useful signal powers on the further communication links.
Process for the preparation of Latanoprostene bunod of formula (I) which meets the following quality requirements: Latanoprostene bunod Related impurities (HPLC) 15S-Latanoprostene bunod ≤ 0.50 % 5,6-trans-Latanoprostene bunod ≤ 3.5 % Latanoprost ≤ 0.50 Latanoprost acid ≤ 0.50 % Non-identified impurities individually ≤ 0.10 % Non-identified impurities, total ≤ 0.30 % Sum of impurities ≤ 5.0 % characterized in that the crude Latanoprostene bunod of formula (I) is purified by chromatography, applying normal phase gravity silica gel column chromatography, using as silica gel a.) normal phase, irregular silica gel of particle size 63-200 micron, or b.) normal phase spherical silica gel of particle size 50-150 micron, and as eluent, an eluent mixture consisting of an apolar solvent selected from straightor branched-chain aliphatic, cyclic or aromatic hydrocarbons, halogenated aliphatic hydrocarbons or ether-type solvents and a polar solvent selected from alcohol-, ester- or ketone-type solvent containing straight- or branched-chain alkyl group, and if desired, impurities arising from the eluents used for purification chromatography of compound of formula (I) are removed by silica gel filtration chromatography. using as silica gel a.) normal phase, irregular silica gel of particle size 63-200 micron, or b.) normal phase spherical silica gel of particle size 50-150 micron, and a.) normal phase, irregular silica gel of particle size 63-200 micron, or b.) normal phase spherical silica gel of particle size 50-150 micron, and as eluent, an eluent mixture consisting of an apolar solvent selected from straightor branched-chain aliphatic, cyclic or aromatic hydrocarbons, halogenated aliphatic hydrocarbons or ether-type solvents and a polar solvent selected from alcohol-, ester- or ketone-type solvent containing straight- or branched-chain alkyl group, and if desired, impurities arising from the eluents used for purification chromatography of compound of formula (I) are removed by silica gel filtration chromatography.