mhurhangee/ep-ind-claims huggingface dataset:
A temperature probe for determining a temperature in a gas flow, the probe comprising a probe body and at least two temperature sensors (50, 60), wherein a temperature sensor is provided as a total temperature sensor to measure a total temperature of the gas flow, wherein a temperature sensor is provided as a free flow temperature sensor to measure a free flow temperature of the gas flow, the probe body being shaped to provide a flow stagnation area, the flow stagnation area being provided and configured to convert essentially all kinetic energy of an incoming flow into thermal energy, wherein the total temperature sensor is located in a gas volume in said stagnation area, wherein the stagnation area is provided as a stagnation cavity (40. 45, 46, 47) in the probe body, the stagnation cavity is provided as a blind cavity and the stagnation cavity opening out to the exterior of the probe body with a flow receiving opening, the flow receiving opening being provided at one end of the stagnation cavity and a blind end being provided on an opposite end of the stagnation cavity.
Sulfur coated granular fertilizer, having a polymer coating on the sulfur layer, wherein the polymer coating comprises polycaprolactone, which is a polymer or copolymer including caprolactone monomers.
A fastener comprising: a metallic member having: a head; and a shaft having: a first end at the head; a distal second end; and an externally threaded portion; and a non-metallic cap member mated to the head opposite the shaft, wherein the non-metallic cap member preferably comprises or consists essentially of a ceramic matrix composite; characterized in that the metallic member further includes a projection extending from the head opposite the shaft, and in that the non-metallic cap member is retained by the projection, the projection being deformed so as to retain the cap member. a metallic member having: a head; and a shaft having: a first end at the head; a distal second end; and an externally threaded portion; and a head; and a shaft having: a first end at the head; a distal second end; and an externally threaded portion; and a first end at the head; a distal second end; and an externally threaded portion; and a non-metallic cap member mated to the head opposite the shaft, wherein the non-metallic cap member preferably comprises or consists essentially of a ceramic matrix composite; characterized in that the metallic member further includes a projection extending from the head opposite the shaft, and in that the non-metallic cap member is retained by the projection, the projection being deformed so as to retain the cap member.
Method for manufacturing at least one portion of a box structure comprising at least one stiffened main wall (42, 44, 46, 48) extended by at least one flange (106, 106') and/or by at least one stiffened secondary wall (42, 44, 46, 48), said portion of the box structure being obtained from an outer skin made of a composite material and from a plurality of sections (52, 54) made of a composite material, each having a joining face (F52, F54) in contact with the outer skin, said method comprising a step of obtaining the sections (52, 54), a step of positioning said sections (52, 54) on a mold comprising at least a first face (70.1, 70.2, 70.3) on which the sections (52, 54) are positioned, a step of obtaining a flat fiber preform (72, 72', 72", 72′′′) having a thickness substantially equal to the outer skin, a step of placing a central portion of the fiber preform (72, 72', 72", 72′′′) on the sections (52, 54) positioned on the first face (70.1) of the mold, the fiber preform (72, 72', 72", 72′′′) having at least one lateral extension (76.1, 76.2) extending the central portion, a step of forming the lateral extension (76.1, 76.2), a step of placing at least one polymerization covering, at least one polymerization step, and at least one demolding step; characterized in that, during the forming step, the main portion is kept pressed against the joining faces of the sections (52, 54) positioned on the first face (70.1) of the mold by at least one main jaw and in that the lateral extension (76.1, 76.2) of the fiber preform (72, 72', 72", 72′′′) is folded against a forming surface, substantially perpendicular to the first face (70.1) of the mold, by means of at least one secondary jaw (80.1, 80.2, 82.1, 82.2) designed to move in translation parallel to the forming surface.
A method for receiving a media content programme of interest at a media device, wherein a plurality of multicast first media content streams are transmitted by a media content distribution center, wherein each of the plurality of multicast first media content streams provides the media content programme of interest and wherein the transmission of each of the plurality of multicast first media content streams is offset in time; communicating a request to the media content distribution center for the media content programme of interest, wherein the media content programme of interest is defined by a sequentially ordered plurality of portions that begins with a first portion and is followed by a second portion and wherein the second portion is followed by further portions; receiving a notification from the media content distribution center that identifies which of the plurality of multicast first media content streams began transmission most recently; accessing the identified multicast first media content stream in response to the communicated notification; receiving, from the identified multicast first media content stream, a set of remaining portions of the media content programme of interest that are concurrently transmitted to a plurality of media devices, wherein the set of remaining portions begins with the second portion of the plurality of portions of the media content programme of interest; storing the received set of remaining portions at the media device; and in response to the request, receiving a second media content stream containing the first portion and the second portion of the media content programme of interest.
A wireless communication method performed by a processing center in a communication system, the method comprising: determining, coverages of at least two access end devices comprised in the communication system, wherein the at least two access end devices access an internet via a same gateway device; determining a location of a user equipment, which accesses a target service via a first access end device in the at least two access end devices and the same gateway device, in the communication system; determining that the user equipment is capable of accessing a first target service via a second access end device and the same gateway device according to the location of the user equipment in the communication system and a coverage of the second access end device in the at least two access end devices, wherein the first target service is a part of the target service, a communication technology of the first access end device is different from a communication technology of the second access end device, or a carrier frequency used by the first access end device is different from a carrier frequency used by the second access end device; and sending first indication information used for instructing the user equipment to access the first target service via the second access end device to the user equipment. determining, coverages of at least two access end devices comprised in the communication system, wherein the at least two access end devices access an internet via a same gateway device; determining a location of a user equipment, which accesses a target service via a first access end device in the at least two access end devices and the same gateway device, in the communication system; determining that the user equipment is capable of accessing a first target service via a second access end device and the same gateway device according to the location of the user equipment in the communication system and a coverage of the second access end device in the at least two access end devices, wherein the first target service is a part of the target service, a communication technology of the first access end device is different from a communication technology of the second access end device, or a carrier frequency used by the first access end device is different from a carrier frequency used by the second access end device; and sending first indication information used for instructing the user equipment to access the first target service via the second access end device to the user equipment.
A retainer for controlling the payout of wire from a wire container, the retainer having at least three segments, each segment being connected to the adjacent segment so as to allow a relative movement of adjacent segments with respect to each other, the entirety of the segments forming a contact surface adapted for contacting the wire contained in the wire container, characterized in that each segment comprises a first connection section and a second connection section, the first and second connection sections (30, 32) being arranged at opposite ends of the segment, the first connection section of one of the segments being connected to the second connection section of an adjacent one of the segments by mechanically engaging into each other.
Measuring device comprising at least one microelectromechanical capacitive sensor (9a, 9b) having electrodes that are movable towards one another and away from one another for the purpose of measuring a mechanical deflection of a test mass, comprising a charge integrator having an operational amplifier, which has at least one amplifier input (13a, 13b) connected to the sensor (9a, 9b) and at least one amplifier output (15a, 15b) coupled with feedback to the amplifier input (13a, 13b) via at least one integration capacitor (16a, 16b), characterized in that the at least one amplifier input (13a, 13b) is connected to a terminal for an electrical common-node reference potential via a high-resistance electrical resistor (17a, 17b), the terminal being connected to a reference voltage source, in that the operational amplifier has at least one auxiliary input (20a, 20b) in addition to the at least one amplifier input (13a, 13b), and in that the amplifier output (15a, 15b) is connected to the at least one auxiliary input (20a, 20b) via a low-pass filter.
Electric drive motor, in particular for an assembly in a motor vehicle, for example a window winder drive motor, having a rotatably mounted rotor shaft and having a commutation system, comprising a commutator, which is connected in a rotationally fixed manner to the rotor shaft, and carbon brushes which are arranged on brush guiding parts and bear against the commutator, wherein the carbon brushes bear radially against the outer lateral surface of the commutator, wherein force is applied to each carbon brush in the direction of the commutator by a spring element, wherein the spring force which is generated by the spring element and is applied to the carbon brush has one component (F X) radially in the direction of the commutator and one component (Fz) in the direction of the brush guiding part, and the spring element is designed as a leg spring, wherein a spring leg of the leg spring applies force to the carbon brush, and the spring leg is guided in a groove which is made in the carbon brush, wherein the carbon brush has an angular cross section, characterized in that the rotation axis of the leg spring runs transversely in relation to the rotor axis, and the component (F Z) of the applied spring force runs in the direction of the rotor axis, and the force component (F Z) which is applied to the brush guiding part runs in the direction of the rotor axis, wherein the leg spring and the groove in the carbon brush form an angle of at most 30° with the rotor axis, and a cross section diagonal of the carbon brush runs in the direction of the rotor axis, and the groove, which is made in the free end side of the carbon brush and serves to receive the spring leg, runs in the diagonal direction.
A video image processing system comprising: a video image input section which inputs a video image photographed by a mobile video image photographing device; a moving feature variable obtaining section which obtains a moving feature variable indicating a feature of said video image photographing device in a state of moving; a video image type determining section which determines a type of a video image scene included in said video image on the basis of said moving feature variable; and a video image processing section which determines a processing method of said video image on the basis of said type of said video image scene determined by said video image type determining section, and processes said video image on the basis of said determined processing method, wherein said moving feature variable obtaining section includes: a speed input section which obtains a moving speed of said video image photographing device, a first position input section which obtains a photographing position of said video image photographing device, and a moving feature variable calculating section which calculates a moving feature variable corresponding to said video image scene on the basis of said photographing position and said moving speed, wherein said processing method includes at least one of a method for slowly replaying said video image, and a method for replaying said video image at high-speed. a video image input section which inputs a video image photographed by a mobile video image photographing device; a moving feature variable obtaining section which obtains a moving feature variable indicating a feature of said video image photographing device in a state of moving; a video image type determining section which determines a type of a video image scene included in said video image on the basis of said moving feature variable; and a video image processing section which determines a processing method of said video image on the basis of said type of said video image scene determined by said video image type determining section, and processes said video image on the basis of said determined processing method, a speed input section which obtains a moving speed of said video image photographing device, a first position input section which obtains a photographing position of said video image photographing device, and a moving feature variable calculating section which calculates a moving feature variable corresponding to said video image scene on the basis of said photographing position and said moving speed, wherein said processing method includes at least one of a method for slowly replaying said video image, and a method for replaying said video image at high-speed.
A separator for a secondary battery comprising: a separator substrate made of a polymer resin having a porous structure; a first coating layer coated on the separator substrate, the first coating layer comprising 50 to 99 weight%, based on the total solid mass of the first coating layer, of a first inorganic material, and comprising a first binder having a glass transition temperature (Tg) lower than 30°C; and a second coating layer coated on the first coating layer, the second coating layer comprising a second inorganic material and a second binder having a Tg of at least 60°C. a separator substrate made of a polymer resin having a porous structure; a first coating layer coated on the separator substrate, the first coating layer comprising 50 to 99 weight%, based on the total solid mass of the first coating layer, of a first inorganic material, and comprising a first binder having a glass transition temperature (Tg) lower than 30°C; and a second coating layer coated on the first coating layer, the second coating layer comprising a second inorganic material and a second binder having a Tg of at least 60°C.
Procedure designed to protect against unauthorized access to a field device (S1, S2, S3) used in process automation engineering, wherein said field device (S1, S2, S3) is a sensor or an actuator, wherein the field device (S1, S2, S3) is connected to a control unit by means of a fieldbus, wherein process control is from the control unit and wherein measured values from various field devices (S1, S2, S3) are evaluated in the control unit and, on the basis of this evaluation, control signals are generated for the corresponding actuators, wherein signal transmission between the field device (S1, S2, S3) and the control unit is according to one of the standards HART, Profibus, Foundation Fieldbus or CAN-Bus, characterized in that function blocks (AI, PAD, AD) are saved in the field device (S1, S2, S3) that essentially determine the functionality of the field device (S1, S2, S3) or the control strategy of the field device (S1, S2, S3) in connection with other field devices (S1, S2, S3) connected to the fieldbus, in that the parameters of the function block (AI, PAD, AD) are defined during the configuration and parameterization of the field devices (S1, S2, S3), and in that a security program is saved in the field device (S1, S2, S3) as part of a function block (AI, PAD, AD) or as part of a firmware saved in the field device (S1, S2, S3), wherein said security program performs an authorization check when the field device (S1, S2, S3) is accessed via the fieldbus for the purpose of modifying the configured parameters of the function blocks (AI, PAD, AD) or for the purpose of replacing the function blocks (AI, PAD, AD).
A video display apparatus, comprising a camera configured to capture a real image of a real object; a display unit configured to display an Augmented Reality, AR, image on a display screen so as to be superimposed on the real image; a sight line detector configured to detect a sight line direction of a user of the video display apparatus; and a control unit configured to set a sight line region in accordance with the sight line direction detected by the sight line detector and to control the display unit, wherein the control unit is further configured to detect a position and orientation of the video display apparatus, generate the AR image based on the captured real image of the real object, display the AR image on the display screen, generate an ID image including identification information for supporting an operation of a user to the AR image, display the ID image so as to be associated with the AR image when the AR image falls within a range of the sight line region, receive an operation to select the ID image from the user, when receiving the operation to select the ID image, select the AR image associated with the ID image and execute a predetermined process associated with the AR image, and characterized in that the sight line region is enlarged or reduced so as to contain up to a predetermined number of the AR images based on a user setting provided in advance through a user operation. a camera configured to capture a real image of a real object; a display unit configured to display an Augmented Reality, AR, image on a display screen so as to be superimposed on the real image; a sight line detector configured to detect a sight line direction of a user of the video display apparatus; and a control unit configured to set a sight line region in accordance with the sight line direction detected by the sight line detector and to control the display unit, wherein the control unit is further configured to detect a position and orientation of the video display apparatus, generate the AR image based on the captured real image of the real object, display the AR image on the display screen, generate an ID image including identification information for supporting an operation of a user to the AR image, display the ID image so as to be associated with the AR image when the AR image falls within a range of the sight line region, receive an operation to select the ID image from the user, when receiving the operation to select the ID image, select the AR image associated with the ID image and execute a predetermined process associated with the AR image, and characterized in that the sight line region is enlarged or reduced so as to contain up to a predetermined number of the AR images based on a user setting provided in advance through a user operation.
A battery monitoring device for real-time measurement and monitoring of a battery module driving an actual load and having a plurality of battery cells (11 1 to 11 n) connected together in series, comprising: a plurality of power and impedance calculators (24 1 to 24 n) provided for the respective battery cells (11 1 to 11 n), and configured to receive voltage signals and current signals from the battery cells (11 1 to 11 n), respectively, and to measure instantaneous power values and internal impedance characteristics of the battery cells (11 1 to 11 n), respectively; a battery module state manager configured to receive output data of the power and impedance calculators via an internal bus; and an accelerator work monitor configured to monitor movement of an accelerator which is a part of a vehicle driving system as a load device of the battery module, and to supply a resulting detection signal to the plurality of power and impedance calculators (24 1 to 24 n) and the battery module state manager, wherein each of the power and impedance calculators (24 1 to 24 n) is configured to acquire measurement data at a specific time resolution and in a specific time span, to perform discrete Fourier transformation or fast Fourier transformation on the acquired measurement data, and to estimate constants of an equivalent circuit in a desired frequency domain on the basis of results of the Fourier transformation or the fast Fourier transformation. a plurality of power and impedance calculators (24 1 to 24 n) provided for the respective battery cells (11 1 to 11 n), and configured to receive voltage signals and current signals from the battery cells (11 1 to 11 n), respectively, and to measure instantaneous power values and internal impedance characteristics of the battery cells (11 1 to 11 n), respectively; a battery module state manager configured to receive output data of the power and impedance calculators via an internal bus; and an accelerator work monitor configured to monitor movement of an accelerator which is a part of a vehicle driving system as a load device of the battery module, and to supply a resulting detection signal to the plurality of power and impedance calculators (24 1 to 24 n) and the battery module state manager, wherein each of the power and impedance calculators (24 1 to 24 n) is configured to acquire measurement data at a specific time resolution and in a specific time span, to perform discrete Fourier transformation or fast Fourier transformation on the acquired measurement data, and to estimate constants of an equivalent circuit in a desired frequency domain on the basis of results of the Fourier transformation or the fast Fourier transformation.
Reaction resin mortar, containing a resin mixture with a modified epoxy(meth)acrylate resin as base resin, in which the modified epoxy(meth)acrylate resin may be obtained by (i) converting organic compounds that have epoxide groups with an average number of the molar mass M n in the range from 129 to 2,400 g/Mol with (meth)acrylic acid and then (ii) partly esterifying the ß-hydroxyl groups formed in the conversion with the anhydride of a saturated C 3 -C 5 -dicarboxylic acid, and inorganic and/or organic additives.
A method for fault positioning of a voltage source converter, characterized in that: locking the voltage source converter of a voltage source converter station when it is detected that an alternating-current side zero sequence voltage Uo_ac or a direct-current side unbalanced voltage U o_dc of the voltage source converter station stays greater than a set first threshold Uo_set1 for longer than a set period of time Δt1; and determining the voltage source converter station as a faulty station if it is detected that the alternating-current side zero sequence voltage Uo_ac of the voltage source converter station stays greater than a set second threshold U o_set2 for longer than a set period of time Δt2 in the locking period; otherwise, determining the voltage source converter station as a non-faulty station.