mhurhangee/ep-ind-claims huggingface dataset:
A crane control system for actuating positioners (3A, 3B, 3C) of a crane, wherein the crane control system is configured to perform the following functions: - receiving target position data which describe a predefined target position of at least one positioner (3A, 3B, 3C); - receiving clearance data which describe a user input for clearing a movement of the at least one positioner (3A, 3B, 3C) into the predefined target position; - outputting control data which describe control signals to be outputted to the at least one positioner (3A, 3B, 3C) in order to move the at least one positioner (3A, 3B, 3C) into the predefined target position, characterised in that the control data are outputted for as long as the user activates an operating device (4A, 4B) in order to activate at least one additional positioner (3A, 3B, 3C). - receiving target position data which describe a predefined target position of at least one positioner (3A, 3B, 3C); - receiving clearance data which describe a user input for clearing a movement of the at least one positioner (3A, 3B, 3C) into the predefined target position; - outputting control data which describe control signals to be outputted to the at least one positioner (3A, 3B, 3C) in order to move the at least one positioner (3A, 3B, 3C) into the predefined target position,
A method of bonding a shear web to a wind turbine blade shell, the shear web comprising a web and a mounting flange oriented transverse to the web, and the method comprising: a. positioning the shear web relative to the blade shell such that the mounting flange is in mutually opposed relation with an inner surface of the blade shell; b. providing a primary seal between the mounting flange and the inner surface of the blade shell, the seal defining a substantially enclosed primary cavity between the mounting flange and the inner surface of the blade shell; c. providing a secondary seal between the mounting flange and the inner surface of the blade shell, the secondary seal at least partially surrounding the primary seal and being spaced apart from the primary seal to define a peripheral cavity between the primary and secondary seals, the peripheral cavity at least partially surrounding the primary cavity; d. removing air from the primary cavity to create a vacuum in the primary cavity and removing air from the peripheral cavity to create a vacuum in the peripheral cavity; e. admitting adhesive into the primary cavity; and f. curing the adhesive. a. positioning the shear web relative to the blade shell such that the mounting flange is in mutually opposed relation with an inner surface of the blade shell; b. providing a primary seal between the mounting flange and the inner surface of the blade shell, the seal defining a substantially enclosed primary cavity between the mounting flange and the inner surface of the blade shell; c. providing a secondary seal between the mounting flange and the inner surface of the blade shell, the secondary seal at least partially surrounding the primary seal and being spaced apart from the primary seal to define a peripheral cavity between the primary and secondary seals, the peripheral cavity at least partially surrounding the primary cavity; d. removing air from the primary cavity to create a vacuum in the primary cavity and removing air from the peripheral cavity to create a vacuum in the peripheral cavity; e. admitting adhesive into the primary cavity; and f. curing the adhesive.
A catheter for optical coherence tomography, comprising: an elongate catheter body extending distally to proximally, the elongate catheter body comprising a side-facing hole; an optical fiber in the elongate catheter body; and a lens body positioned within the side-facing hole and attached to and optically coupled with a distal end of the optical fiber by an interface medium, the lens body having a concave proximal surface that is opposite from and at an angle relative to the distal end of the optical fiber; wherein the proximal surface has a compound radius having a first radius along a first axis that is different from a second radius along a second axis; wherein the proximal surface comprises a reflective material configured so that at least 90% of light passing from the distal end of the optical fiber to the lens body reflects off of the proximal surface; and wherein the optical fiber and the lens body are together configured to provide a common path for optical radiation reflected from a target and from a reference interface between the distal end of the optical fiber and the proximal surface. an elongate catheter body extending distally to proximally, the elongate catheter body comprising a side-facing hole; an optical fiber in the elongate catheter body; and a lens body positioned within the side-facing hole and attached to and optically coupled with a distal end of the optical fiber by an interface medium, the lens body having a concave proximal surface that is opposite from and at an angle relative to the distal end of the optical fiber; wherein the proximal surface has a compound radius having a first radius along a first axis that is different from a second radius along a second axis; wherein the proximal surface comprises a reflective material configured so that at least 90% of light passing from the distal end of the optical fiber to the lens body reflects off of the proximal surface; and wherein the optical fiber and the lens body are together configured to provide a common path for optical radiation reflected from a target and from a reference interface between the distal end of the optical fiber and the proximal surface.
A tire identification code registration system for use with a plurality of tire pressure detectors and a tire pressure monitoring system (TPMS) receiver, each of the tire pressure detectors includes a unique tire identification code and is configured to be coupled to a tire, each of the tire pressure detectors is configured to detect pressure of the corresponding tire and transmit a tire pressure signal (Stp) that includes tire pressure information, and the receiver is configured to receive the tire pressure signal (Stp) and monitor the pressure of the corresponding tire based on the received tire pressure signal (Stp), the tire identification code registration system comprising: a storage manager configured to store, in a memory, tire identification codes included in wireless signals received during a predetermined storage period as candidate tire identification codes; and a registration unit configured to register the candidate tire identification codes in the memory as formal tire identification codes after the storage performed by the storage manager when the number of the candidate tire identification codes in the memory is equal to a predetermined storage number characterized by further comprising a deletion unit configured to delete candidate identification codes from the memory when the number of candidate identifications codes in the memory is greater than the predetermined storage number, wherein the deletion unit is configured to delete each candidate tire identification code from the memory that is not included in a wireless signal received during a predetermined deletion period. a storage manager configured to store, in a memory, tire identification codes included in wireless signals received during a predetermined storage period as candidate tire identification codes; and a registration unit configured to register the candidate tire identification codes in the memory as formal tire identification codes after the storage performed by the storage manager when the number of the candidate tire identification codes in the memory is equal to a predetermined storage number characterized by further comprising a deletion unit configured to delete candidate identification codes from the memory when the number of candidate identifications codes in the memory is greater than the predetermined storage number, wherein the deletion unit is configured to delete each candidate tire identification code from the memory that is not included in a wireless signal received during a predetermined deletion period.
A permanent magnet motor drive system comprising a permanent magnet motor having permanent magnets (3, 4), an inverter adapted to drive the permanent magnet motor, and a magnetize means adapted to pass a magnetizing current for controlling flux of the permanent magnets (3, 4), wherein the permanent magnet motor has two or more kinds of permanent magnets (3, 4) having different shapes or different magnetic characteristics, to form a magnetic pole, a plurality of the magnetic poles forming a rotor, and wherein the permanent magnets (3, 4) that form the magnetic pole include a permanent magnet of a first kind whose product of coercive force and thickness along magnetizing direction differs from that of another permanent magnet of a second kind; characterized in that the magnetize means is adapted to pass a d-axis current through an armature coil of the permanent magnet motor, to generate a magnetic field (B3i) to magnetize at least a permanent magnet of the first kind at each magnetic pole and irreversibly change a flux amount of the permanent magnet of the first kind and change a current phase of an armature coil current, to pass a magnetizing current, and to overlap a positive d-axis current through the armature coil on a q-axis current when the permanent magnet motor generates a torque, the positive d-axis current being in the same direction as the magnetizing direction of a permanent magnet of the first kind at each magnetic pole, such that the magnetic field (B3i) created by the positive d-axis current cancels a demagnetizing field created by the q-axis current inside the permanent magnet of the first kind.
An antibody or a functional fragment thereof capable of specifically binding to human tumor necrosis factor alpha (TNFα), wherein said antibody or functional fragment comprises (i) a V L domain having the amino acid sequence as shown in SEQ ID NO:14, and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:13, and wherein specific binding refers to the ability of the antibody or fragment to discriminate between human TNFα and human TNFβ.
An apparatus comprising: a plurality of work element queues to store work elements for a plurality of thread contexts, each work element associated with a context descriptor identifying a context storage region in memory; a plurality of independent command streamers (1651, 1652, 1653, 1654, 1655), each command streamer associated with one of the plurality of work element queues comprising a number of work elements which are executed in order, wherein the plurality of independent command streamers (1651, 1652, 1653, 1654, 1655) include one or more render command streamers to process 3D graphics workloads or compute workloads, and one or more compute command streamers (1652, 1653, 1654, 1655) to process compute workloads, the independent command streamers to simultaneously submit instructions for execution as specified by the work elements; a thread dispatcher to evaluate the thread contexts including priority values, to tag each instruction with an execution identifier, ID, and to responsively dispatch each instruction including the execution ID in accordance with the thread context; and a plurality of graphics functional units to independently execute each instruction dispatched by the thread dispatcher and to associate each instruction with a thread context based on its execution ID. a plurality of work element queues to store work elements for a plurality of thread contexts, each work element associated with a context descriptor identifying a context storage region in memory; a plurality of independent command streamers (1651, 1652, 1653, 1654, 1655), each command streamer associated with one of the plurality of work element queues comprising a number of work elements which are executed in order, wherein the plurality of independent command streamers (1651, 1652, 1653, 1654, 1655) include one or more render command streamers to process 3D graphics workloads or compute workloads, and one or more compute command streamers (1652, 1653, 1654, 1655) to process compute workloads, the independent command streamers to simultaneously submit instructions for execution as specified by the work elements; a thread dispatcher to evaluate the thread contexts including priority values, to tag each instruction with an execution identifier, ID, and to responsively dispatch each instruction including the execution ID in accordance with the thread context; and a plurality of graphics functional units to independently execute each instruction dispatched by the thread dispatcher and to associate each instruction with a thread context based on its execution ID.
Apparatus for level control of a fluid in a fluid tank (122, 132, 144), wherein the fluid tank (122, 132, 144) is designed to accommodate a supply of the fluid, and wherein the apparatus comprises at least one conveying line through which the fluid can flow, which comprises at least one control opening which is hydraulically connected to the fluid tank (122, 132, 144), characterized in that the conveying line has at least one control section which is arranged within the fluid tank (122, 132, 144) or within a control tank which is hydraulically connected to the fluid tank (122, 132, 144), which section runs at least partially horizontally, and in that the control opening is arranged in the control section, wherein the horizontal control section with the control opening defines a minimum level of the fluid in the fluid tank or in the control tank, and wherein the control opening at least largely prevents fluid flowing out of the conveying line and into the fluid tank (122, 132, 144) when at least one minimum level in the fluid tank (122, 132, 144) is exceeded, and allows fluid to flow out of the conveying line and into the fluid tank (122, 132, 144) when the minimum level in the fluid tank (122, 132, 144) is undershot.
Analyzer for determining a measured variable which depends on the concentration of one or more components, particularly oxidizable components, of a sample, comprising: - a digestion reactor with an oxygen supply line for the introduction of oxygen into the digestion reactor and a gas outlet that connects the digestion reactor to a measuring apparatus; - a heating unit designed to heat the digestion reactor to a predefined operating temperature; - an oxygen generation unit comprising at least one membrane that is permeable to oxygen, particularly a membrane made from a ceramic material; - a housing in which an insulating tube that surrounds the digestion reactor, the heating unit and the oxygen generation unit is arranged; and - a feed gas conduit system to supply a feed gas to the at least one membrane of the oxygen generation unit, wherein the feed gas conduit system comprises a reaction chamber surrounding the at least one membrane and is connected to at least one admission channel that is open to the environment of the analyzer; characterized in that at least two, particularly tubular, partition walls (19.1, 19.2) that surround the digestion reactor are arranged within the insulating tube in a way that they are coaxially positioned in relation to the tube axis of the insulating tube, said partition walls dividing an intermediate space between the digestion reactor and the insulating tube into annular chambers (7.1, 7.2, 7.3) forming the feed gas conduit system, said chambers being interconnected by overflow openings. - a digestion reactor with an oxygen supply line for the introduction of oxygen into the digestion reactor and a gas outlet that connects the digestion reactor to a measuring apparatus; - a heating unit designed to heat the digestion reactor to a predefined operating temperature; - an oxygen generation unit comprising at least one membrane that is permeable to oxygen, particularly a membrane made from a ceramic material; - a housing in which an insulating tube that surrounds the digestion reactor, the heating unit and the oxygen generation unit is arranged; and - a feed gas conduit system to supply a feed gas to the at least one membrane of the oxygen generation unit, wherein the feed gas conduit system comprises a reaction chamber surrounding the at least one membrane and is connected to at least one admission channel that is open to the environment of the analyzer;
A composite tube comprising: a first layer having an inner surface that defines a central lumen of the tube, the first layer comprising a thermoplastic polymer having a Tg of not greater than about 160°C, wherein the thermoplastic polymer is a copolyester, a polyether-ester copolymer, a thermoplastic urethane, a polyether amide block copolymer, or combination thereof; and a second layer adjacent to the first layer, the second layer comprising an extruded silicone material.
A generally polygonal indexable cutting insert for milling having a minor cutting edge (3, 13, 23) for finishing at a corner thereof, the minor cutting edge comprising two circular cutting edge portions joined to straight major cutting edges on both sides of the corner and a straight cutting edge portion located between the two circular cutting edge portions, characterized in that the indexable cutting insert for milling satisfies the following conditions: 0.05TA ≤ L1 ≤ 0.4TA, 0.1L1 ≤ L ≤ 0.5L1, and h ≤ 15 μm where TA is the radius of a circle inscribed inside the major cutting edges as viewed in the thickness direction of the indexable cutting insert for milling, L1 is the length of the minor cutting edge in the longitudinal direction of the straight cutting edge portion, L is the length of the straight cutting edge portion, and h is the height of the minor cutting edge.
A heat-conductive resin composition comprising an inorganic filler component and a resin component, wherein the inorganic filler component comprises a first inorganic filler and a second inorganic filler, a particle size distribution of the inorganic filler component has a first maximum point caused by the first inorganic filler and a second maximum point caused by the second inorganic filler, a particle diameter at the first maximum point is 15 pm or more, a particle diameter at the second maximum point is 30% or more and 2/3 or less of the particle diameter at the first maximum point, an integrated amount of frequency between a peak start and a peak end in a peak having the first maximum point is 70% or more, an integrated amount of frequency between a peak start and a peak end in a peak having the second maximum point is 25% or more, and the first inorganic filler is formed by agglomerating hexagonal boron nitride primary particles and has a crushing strength of 6 MPa or more. the inorganic filler component comprises a first inorganic filler and a second inorganic filler, a particle size distribution of the inorganic filler component has a first maximum point caused by the first inorganic filler and a second maximum point caused by the second inorganic filler, a particle diameter at the first maximum point is 15 pm or more, a particle diameter at the second maximum point is 30% or more and 2/3 or less of the particle diameter at the first maximum point, an integrated amount of frequency between a peak start and a peak end in a peak having the first maximum point is 70% or more, an integrated amount of frequency between a peak start and a peak end in a peak having the second maximum point is 25% or more, and the first inorganic filler is formed by agglomerating hexagonal boron nitride primary particles and has a crushing strength of 6 MPa or more.
An assembly comprising a fillable flask for dispensing a fluid product and a product source intended for filling said fillable flask, said source comprising a tank for conditioning said product method which is provided with an aperture wherein a device for dispensing the conditioned product is mounted, said fillable flask comprising a tank intended for conditioning said product and a device for dispensing said conditioned product which is sealably mounted on said tank, said fillable flask being equipped with a valve for filling the tank which is laid out so as to allow communication between the product source and the tank with view to filling it, said assembly being characterized in that the aperture of the source is equipped with a bushing for reversibly connecting the dispensing device by having the supply means of said device communicate with the source tank, said bushing being laid out, after disconnecting the dispensing device, for allowing connection of the fillable flask by actuating the aperture of the valve so as to have the tanks (2, 18) sealably communicate with each other with view to their filling.
Multistage screw compressor unit comprising a transmission housing, a drive gear arranged in the transmission housing, and a first, second and third screw compressor (60, 70, 80), which are attached to the transmission housing and coupled to the drive gear so as to all be driven together by the drive gear, wherein, during operation, the first screw compressor compresses a flow of a gaseous fluid from an intake pressure to a first intermediate pressure, the second screw compressor compresses the flow of the fluid from the first intermediate pressure to a second intermediate pressure, and the third screw compressor compresses the flow of the fluid from the second intermediate pressure to a final pressure, the final pressure being at least thirty times, preferably at least approximately forty times, the intake pressure, wherein the transmission housing comprises a perpendicular mounting wall, a drive shaft rotatably mounted in the transmission housing about a horizontal axis carries a drive gear, and the screw compressors (60, 70, 80) are attached to the mounting wall so as to project in parallel with one another, and each of said screw compressors comprises two axially parallel screw rotors (3, 5) that are mutually engaged by means of helical ribs and grooves and comprises a shaft journal on one of said rotors, which journal protrudes through an opening in the mounting wall into the transmission housing and carries a driven gear (65, 75, 85) that meshes with the drive gear, wherein the driven gears (65, 75) of two screw compressors that form the first and second stage of the compressor unit mesh with the drive gear at locations that are above the horizontal plane extending through the axis of rotation of the drive gear, and wherein the third screw compressor is arranged below the first and second screw compressor (60, 70) and its driven gear meshes with the drive gear at a location that is close to the deepest point of the circumference of the drive gear.