mhurhangee/patent-ind-claim-en huggingface dataset:
A bone conduction speaker , comprising: a magnetic circuit component configured to provide a magnetic field; a vibration component , wherein at least a part of the vibration component is located in the magnetic field, and converts an electrical signal inputted into the vibration component into a mechanical vibration signal; and a case comprising a case panel facing a human body side and a case back opposite to the case panel , wherein the case accommodates the vibration component , and the vibration component causes the case panel and the case back to vibrate, a vibration of the case panel having a first phase, a vibration of the case back having a second phase, characterized in that the case panel and the case back are made of a material with a Young's modulus greater than 2000 Mpa, so that when a frequency of the vibration of the case panel and a frequency of the vibration of the case back are within a range of 2000 Hz to 3000 Hz, an absolute value of a difference between the first phase and the second phase is less than 60 degrees. a magnetic circuit component configured to provide a magnetic field; a vibration component , wherein at least a part of the vibration component is located in the magnetic field, and converts an electrical signal inputted into the vibration component into a mechanical vibration signal; and a case comprising a case panel facing a human body side and a case back opposite to the case panel , wherein the case accommodates the vibration component , and the vibration component causes the case panel and the case back to vibrate, a vibration of the case panel having a first phase, a vibration of the case back having a second phase, characterized in that the case panel and the case back are made of a material with a Young's modulus greater than 2000 Mpa, so that when a frequency of the vibration of the case panel and a frequency of the vibration of the case back are within a range of 2000 Hz to 3000 Hz, an absolute value of a difference between the first phase and the second phase is less than 60 degrees.
Scaffolding, comprising a system of scaffold elements, comprising uprights and ledgers (20-22) which extend therebetween and are coupled to the uprights , and comprising at least one intermediate element which mutually connects a first scaffold element and a second scaffold element at least substantially along a mutual perpendicular line, wherein the intermediate element comprises an elongate body from which extends at a distal outer end a set of at least substantially parallel hook members , each having an at least substantially cup-like jaw which engages round the first scaffold element connected thereto, and wherein the hook members have an opposite orientation so that the jaws engage round the first scaffold element from opposite sides and here maintain a mutual distance which is greater than a distance between the opposite sides of the first scaffold element , wherein the hook members are substantially plate-like, and wherein the intermediate element comprises a duct-like body, characterized in that said substantially plate-like hook members were at least separated from a plate, and in that the hook members are mounted on opposite flanks of the intermediate element . said substantially plate-like hook members were at least separated from a plate, and in that the hook members are mounted on opposite flanks of the intermediate element .
A gRNA molecule comprising a first targeting domain which is complementary with a first target domain located within intron 2 of the BCL11A gene, wherein said first targeting domain is configured to target an erythroid enhancer region of the BCL11A gene, wherein said first targeting domain is configured to target a Cas9 molecule and provide a cleavage event; and wherein said first targeting domain comprises or consists of a sequence that is the same as, or differs by no more than 3 nucleotides from, a sequence selected from the group consisting of SEQ ID NOs: 16261 to 16267, 16271 and 16273 to 16279.
Print-head assembly for a printing apparatus, the print-head assembly comprising a print-head carriage , the print-head carriage having a frame and being moveable in a travel direction (D), characterized by an impact damping device comprising: • a cover having at least one cover panel for forming a hollow structure and comprising an impact member mounted at an end of the print-head carriage , the impact member having a contact surface facing in the travel direction (D); and • a mounting mechanism arranged in a hollow space formed by the hollow structure and mounting the impact member to the frame of the print-head carriage , the mounting mechanism being connected to the impact member to provide for movement of the contact surface over a buffer distance (d B ) substantially parallel to the travel direction (D) from a first extended position (A) to a second retracted position (B) for absorbing an impact during movement of the print-head carriage in the travel direction (D), wherein, in normal operation, the contact surface is in the first, extended position (A) and, upon impact, is moved to the second, retracted position (B), and wherein the end of the frame of the print-head carriage is received in the hollow space, when the contact surface is in the retracted position. • a cover having at least one cover panel for forming a hollow structure and comprising an impact member mounted at an end of the print-head carriage , the impact member having a contact surface facing in the travel direction (D); and • a mounting mechanism arranged in a hollow space formed by the hollow structure and mounting the impact member to the frame of the print-head carriage , the mounting mechanism being connected to the impact member to provide for movement of the contact surface over a buffer distance (d B ) substantially parallel to the travel direction (D) from a first extended position (A) to a second retracted position (B) for absorbing an impact during movement of the print-head carriage in the travel direction (D),
A method to generate a clearance request to deviate from a flight plan, the method comprising: periodically receiving input at a processor in an airborne vehicle, the input including at least one of navigation data and/or a flight planning input from a flight management computer, a weather radar input, a ground proximity input and a traffic collision avoidance input ; the processor determining a revised flight route based on the periodically received input ; the processor automatically generating a preconfigured clearance request message to deviate from the flight plan for a user based on the determining ; prompting the user via a user input interface for one of approval and rejection of the clearance request to deviate from the flight plan ; and when an approval of the clearance request to deviate from the flight plan is received from the user, downlinking the preconfigured clearance request message . periodically receiving input at a processor in an airborne vehicle, the input including at least one of navigation data and/or a flight planning input from a flight management computer, a weather radar input, a ground proximity input and a traffic collision avoidance input ; the processor determining a revised flight route based on the periodically received input ; the processor automatically generating a preconfigured clearance request message to deviate from the flight plan for a user based on the determining ; prompting the user via a user input interface for one of approval and rejection of the clearance request to deviate from the flight plan ; and when an approval of the clearance request to deviate from the flight plan is received from the user, downlinking the preconfigured clearance request message .
Apparatus for processing rotation-dependent measured values, comprising a data converter , a sequential control system and an output interface , wherein • the sequential control system generates measurement pulses (MP) at constant time intervals of a measurement interval (T), • series of measured values (MW, MX, MS, MW1, MW2, MW3, Z) are able to be supplied to the data converter at the constant intervals of time of the measurement interval (T), which measured values are dependent on the rotation of a shaft and at least one of which is an angle value (MW, MW1, MW2, MW3) indicating the angular position of the shaft , • the data converter is configured to subdivide a revolution of the shaft into n sectors (SEC) and, using one of the angle values (MW, MW1) as a reference angle value, to assign arriving measured values (MW, MX, MS, MW1, MW2, MW3, Z) to a sector (SEC) and to ascertain precisely one result value (EW, EX, ES, EV) for each sector (SEC) per revolution of the shaft for each series of measured values (MW, MX, MS, MW1, MW2, MW3, Z) and • the result values (EW, EX, ES, EV) are able to be output to the output interface . • the sequential control system generates measurement pulses (MP) at constant time intervals of a measurement interval (T), • series of measured values (MW, MX, MS, MW1, MW2, MW3, Z) are able to be supplied to the data converter at the constant intervals of time of the measurement interval (T), which measured values are dependent on the rotation of a shaft and at least one of which is an angle value (MW, MW1, MW2, MW3) indicating the angular position of the shaft , • the data converter is configured to subdivide a revolution of the shaft into n sectors (SEC) and, using one of the angle values (MW, MW1) as a reference angle value, to assign arriving measured values (MW, MX, MS, MW1, MW2, MW3, Z) to a sector (SEC) and to ascertain precisely one result value (EW, EX, ES, EV) for each sector (SEC) per revolution of the shaft for each series of measured values (MW, MX, MS, MW1, MW2, MW3, Z) and • the result values (EW, EX, ES, EV) are able to be output to the output interface .
A pouch forming device for forming an accommodation part accommodating an electrode assembly in a pouch sheet , the pouch forming device comprising: a lower die having a top surface and an upper portion in which a forming groove is formed, the top surface being adapted to seat a pouch sheet ; a punch unit disposed above the lower die and comprising a punch , said punch having an end that is disposed at a position facing the forming groove of the lower die and that has a shape corresponding to the shape of the forming groove ; and a vacuum unit connected to the forming groove of the lower die , wherein a vacuum passage serving as a passage connecting the forming groove to the vacuum unit is further formed in the lower die , and wherein the vacuum passage has a shape that gradually decreases in diameter toward the suction hole . a lower die having a top surface and an upper portion in which a forming groove is formed, the top surface being adapted to seat a pouch sheet ; a punch unit disposed above the lower die and comprising a punch , said punch having an end that is disposed at a position facing the forming groove of the lower die and that has a shape corresponding to the shape of the forming groove ; and a vacuum unit connected to the forming groove of the lower die , wherein a vacuum passage serving as a passage connecting the forming groove to the vacuum unit is further formed in the lower die , and wherein the vacuum passage has a shape that gradually decreases in diameter toward the suction hole .
A copolymer of monomers containing triisopropylsilyl (meth)acrylate having the general formula and a (meth)acrylic acid derivative, the copolymer having a number average molecular weight of 6,000 to 100,000 and a polydispersity index (Mw/Mn) of up to 1.6, wherein R 1 is hydrogen or methyl, and the number average molecular weight and the polydispersity index are determined by gel permeation chromatography versus polystyrene standards, according to the method mentioned in the specification. wherein R 1 is hydrogen or methyl, and the number average molecular weight and the polydispersity index are determined by gel permeation chromatography versus polystyrene standards, according to the method mentioned in the specification.
A glass panel unit comprising: a first panel including a first glass pane ; a second panel including a second glass pane and arranged to face the first panel ; a sealing portion formed in a frame shape and hermetically bonding respective peripheral edge portions of the first and second panels to create an evacuated, hermetically sealed space between the first panel and the second panel ; an exhaust port provided for one panel selected from the group consisting of the first and second panels; a plate arranged inside the exhaust port , and a printed portion provided for the other panel selected from the group consisting of the first and second panels, the printed portion being located in an area, facing the exhaust port , of one surface of the other panel, the one surface either facing toward, or facing away from, the hermetically sealed space , the printed portion being formed in a shape of a frame having a predetermined width as measured inward from edges in a front view of the other panel and extending along the edges in their entirety, wherein, the printed portion has opacity and when the glass panel unit is viewed through the other panel, the exhaust port , the plate and the sealing portion are hidden behind the printed portion and are invisible. a first panel including a first glass pane ; a second panel including a second glass pane and arranged to face the first panel ; a sealing portion formed in a frame shape and hermetically bonding respective peripheral edge portions of the first and second panels to create an evacuated, hermetically sealed space between the first panel and the second panel ; an exhaust port provided for one panel selected from the group consisting of the first and second panels; a plate arranged inside the exhaust port , and a printed portion provided for the other panel selected from the group consisting of the first and second panels, the printed portion being located in an area, facing the exhaust port , of one surface of the other panel, the one surface either facing toward, or facing away from, the hermetically sealed space , the printed portion being formed in a shape of a frame having a predetermined width as measured inward from edges in a front view of the other panel and extending along the edges in their entirety, wherein, the printed portion has opacity and when the glass panel unit is viewed through the other panel, the exhaust port , the plate and the sealing portion are hidden behind the printed portion and are invisible.
Cooler for at least one electrical energy storage element, the cooler comprising at least one heat-transfer liquid circulation duct the ends of which penetrate into a manifold , each of said manifolds comprising a collector having a through-opening of said at least one duct , and a cover covering said collector in such a way as to define a volume for circulation of the heat-transfer liquid into which said at least one duct opens, said at least one duct having an essentially oblong-shaped cross section and one of the two planar surfaces of said oblong duct being designed to be in contact with the at least one electrical energy storage element or remote from and facing said at least one electrical energy storage element, characterized in that said at least one duct and said cover are mechanically assembled with said collector , said manifold further comprising at least one seal disposed between said collector and said at least one duct , on the one hand, and between said collector and said cover , on the other hand.
Use of a fatty phosphite for reducing the operating temperature of an industrial gearbox, said use comprising the steps of: (I) adding to an industrial gear oil lubricant comprising (a) an oil of lubricating viscosity, and (b) an industrial gear lubricant additive package, (c) a fatty phosphite such that the lubricant contains at least 1.0 percent by weight fatty phosphite, and (II) operating the industrial gearbox while supplying the industrial gear oil lubricant to the industrial gearbox, wherein (b) the industrial gear lubricant additive package comprises one or more antiwear additives and/or extreme pressure agents, one or more rust and/or corrosion inhibitors, one or more foam inhibitors, one or more demulsifiers, or any combination thereof. (a) an oil of lubricating viscosity, and (b) an industrial gear lubricant additive package, (c) a fatty phosphite such that the lubricant contains at least 1.0 percent by weight fatty phosphite, and (II) operating the industrial gearbox while supplying the industrial gear oil lubricant to the industrial gearbox, wherein (b) the industrial gear lubricant additive package comprises one or more antiwear additives and/or extreme pressure agents, one or more rust and/or corrosion inhibitors, one or more foam inhibitors, one or more demulsifiers, or any combination thereof.
Co-granule of xanthan gum and acacia gum having an average diameter of between 50 μm and 1000 μm, characterised in that the weight ratio between the xanthan gum and the acacia gum varies from 4/1 to 1/1.
An apparatus for cooling an electronic assembly , comprising: an evaporator for evaporating a cooling medium using heat of the electronic assembly ; and a power transformer for transforming energy stored in the evaporated cooling medium into electric power, wherein the cooling medium comprises an evaporating temperature at atmospheric pressure within a temperature range of 50°C to 80°C, characterized by a reservoir for the cooling medium which is formed upstream from the evaporator , wherein the power transformer includes a turbine formed as a micro electro mechanical system, MEMS, and a condenser , and wherein a check valve is provided between the condenser and the reservoir to prevent any back flow of cooling medium into the condenser from the reservoir . an evaporator for evaporating a cooling medium using heat of the electronic assembly ; and a power transformer for transforming energy stored in the evaporated cooling medium into electric power, wherein the cooling medium comprises an evaporating temperature at atmospheric pressure within a temperature range of 50°C to 80°C, characterized by a reservoir for the cooling medium which is formed upstream from the evaporator , wherein the power transformer includes a turbine formed as a micro electro mechanical system, MEMS, and a condenser , and wherein a check valve is provided between the condenser and the reservoir to prevent any back flow of cooling medium into the condenser from the reservoir .
Cutting device for cutting floor coverings, in particular designer floor coverings, wherein a plurality of cutting units (9, 9', 9") are arranged one behind the other in the transport direction (T), transport means are provided for transporting a floor covering web along the transport direction (T), positioning means are assigned to the plurality of cutting units in such a way that the cutting units can be positioned in different cutting positions that are laterally offset in a transverse direction (Q) extending transversely to the transport direction (T), so that partial webs can be cut from the floor covering web , the width (b) of which is dependent on the relative arrangement of the cutting units to one another in the transverse direction, and wherein the positioning means are configured in such a way that adjacent cutting units (9, 9', 9") are arranged at an equal transverse spacing (Δy) from one another.
A method of generating a tool path (PA, PA1, PA2) for machining a surface of a workpiece by moving a rotary tool relative to the workpiece , the rotary tool having a cutting blade adapted to cut a workpiece surface intermittently, the method characterised by comprising the steps of: dividing a design-stage workpiece surface into a mesh (MS), based on shape data relative to the design-stage workpiece surface from a CAD unit and the shape of dimples to be formed by the cutting blade , the mesh (MS) defining vertices; setting a pattern of arrangement of a plurality of virtual dimples , representing dimples having center points (P1) corresponding to the vertices of the mesh (MS), the mesh consisting of triangles, and a size corresponding to the distance between center points (P1, P1), on a design-stage workpiece surface ; setting a sequence for machining the virtual dimples ; and determining a tool path (PA, PA1, PA2) of the rotary tool based on the sequence for machining the virtual dimples . dividing a design-stage workpiece surface into a mesh (MS), based on shape data relative to the design-stage workpiece surface from a CAD unit and the shape of dimples to be formed by the cutting blade , the mesh (MS) defining vertices; setting a pattern of arrangement of a plurality of virtual dimples , representing dimples having center points (P1) corresponding to the vertices of the mesh (MS), the mesh consisting of triangles, and a size corresponding to the distance between center points (P1, P1), on a design-stage workpiece surface ; setting a sequence for machining the virtual dimples ; and determining a tool path (PA, PA1, PA2) of the rotary tool based on the sequence for machining the virtual dimples .
A ball screw drive having at least one threaded spindle and a spindle nut which has a substantially cylindrical outer contour with recesses for the installation of a ball deflector and a deflection channel, characterized in that two flat recesses are provided in the surface on the outer circumference of the spindle nut, which recesses have the shape of a rectangle or quadrangle with rounded corners or of a flat elongated hole or a groove; and the center points of which are arranged on the cylinder shell surface at the same height and displaced by an equal angular amount in a clockwise and counterclockwise direction relative to a set point , wherein this set point is arranged pivoted by 180° about the central longitudinal axis of the spindle nut body, relative to the center of gravity that is defined by an enveloping surface around the recesses for the ball deflections.
A method for monitoring a wind turbine generator system, characterized in that the method comprises: obtaining (S101) internal environmental temperature data, external environmental temperature data and component temperature data of the wind turbine generator system; determining (S102) one or more first statistics according to a difference between the component temperature data and the internal environmental temperature data, and determining one or more second statistics according to a difference between the component temperature data and the external environmental temperature data; and determining (S103) whether the component temperature data meets a set requirement according to the first statistics and the second statistics. obtaining (S101) internal environmental temperature data, external environmental temperature data and component temperature data of the wind turbine generator system; determining (S102) one or more first statistics according to a difference between the component temperature data and the internal environmental temperature data, and determining one or more second statistics according to a difference between the component temperature data and the external environmental temperature data; and determining (S103) whether the component temperature data meets a set requirement according to the first statistics and the second statistics.