mhurhangee/ep-ind-claims huggingface dataset:
A molding apparatus configured to receive a fluid casting material, the molding apparatus comprising: a casting mold; and a casting preform anchored to an outer area of the casting mold, the casting preform comprising: a plurality of reinforcing segments comprising a plurality of geometrically shaped bodies, wherein the bodies in the plurality of geometrically shaped bodies are arranged or interconnected to form a casting preform assembly; and one or more linkages configured to couple adjacent reinforcing segments of the plurality of reinforcing segments, wherein each of the reinforcing segments is interposed adjacent to a linkage of the one or more linkages; wherein the one or more linkages are configured to dissolve or melt upon contact with or exposure over time to the fluid casting material. a casting mold; and a casting preform anchored to an outer area of the casting mold, the casting preform comprising: a plurality of reinforcing segments comprising a plurality of geometrically shaped bodies, wherein the bodies in the plurality of geometrically shaped bodies are arranged or interconnected to form a casting preform assembly; and one or more linkages configured to couple adjacent reinforcing segments of the plurality of reinforcing segments, wherein each of the reinforcing segments is interposed adjacent to a linkage of the one or more linkages; wherein the one or more linkages are configured to dissolve or melt upon contact with or exposure over time to the fluid casting material.
A method to substantially eliminate effects of EMI (112; 408) in an Ethernet system, comprising: computing and storing filter coefficients corresponding to a range of EMI frequencies; receiving a signal; detecting EMI (112; 408) in the received signal; determining a frequency of the detected EMI (112; 408); selecting filter coefficients corresponding to the determined frequency of the EMI (112; 408); and adjusting a frequency response of one or more filters using the selected filter coefficients so as to substantially eliminate effects of EMI (112; 408) in the received signal, characterized by the step of: signaling presence of the EMI (112; 408) to a link partner by transmitting a sine wave equal in frequency and magnitude to that of the detected EMI (112; 408). computing and storing filter coefficients corresponding to a range of EMI frequencies; receiving a signal; detecting EMI (112; 408) in the received signal; determining a frequency of the detected EMI (112; 408); selecting filter coefficients corresponding to the determined frequency of the EMI (112; 408); and adjusting a frequency response of one or more filters using the selected filter coefficients so as to substantially eliminate effects of EMI (112; 408) in the received signal,
A vehicle operation diagnosis device that diagnoses a driver's vehicle operation in a vehicle that is provided with an inter-vehicular distance control system that, in a case where an inter-vehicular distance between the driver's own vehicle and a vehicle ahead that is moving forward ahead of the driver's own vehicle is within a specified distance, controls the inter-vehicular distance between the driver's own vehicle and the vehicle ahead by performing deceleration control of the driver's own vehicle, the vehicle operation diagnosis device being characterized in that it comprises: a first driving parameter acquisition unit that acquires a first driving parameter when the driver's own vehicle has traveled in a state in which the deceleration control by the inter-vehicular distance control system was in operation; a second driving parameter acquisition unit that acquires a second driving parameter when the driver's own vehicle has traveled in a state in which the deceleration control by the inter-vehicular distance control system was in operation based on the inter-vehicular distance between the driver's own vehicle and the vehicle ahead being within the specified distance in accordance with a factor that is based on the vehicle ahead; and a vehicle operation diagnosis unit that diagnoses the driver's vehicle operation based on a difference between the first driving parameter and the second driving parameter. a first driving parameter acquisition unit that acquires a first driving parameter when the driver's own vehicle has traveled in a state in which the deceleration control by the inter-vehicular distance control system was in operation; a second driving parameter acquisition unit that acquires a second driving parameter when the driver's own vehicle has traveled in a state in which the deceleration control by the inter-vehicular distance control system was in operation based on the inter-vehicular distance between the driver's own vehicle and the vehicle ahead being within the specified distance in accordance with a factor that is based on the vehicle ahead; and a vehicle operation diagnosis unit that diagnoses the driver's vehicle operation based on a difference between the first driving parameter and the second driving parameter.
A method performed by an electronic device, the method comprising: acquiring a device control instruction input by a user; determining an identity of the user by recognizing at least one of a voice or a face of the user; generating a multi-modal information including a user profile and a user authority of the user from a database based on the determined user; determining at least one target device and an intent of the device control instruction based on the multi-modal information; determining an operation of the at least one target device based on the intent of the device control instruction and the multi-modal information; and controlling the at least one target device to perform the operation based on a processing model and the multi-modal information, characterized in that the processing model is acquired by: acquiring multiple training data; determining a target loss function, based on parameter information in the training data and parameter information predicted by a processing model; and training, through the target loss function, the processing model for changing the parameter information in the device control instruction based on the training data. acquiring a device control instruction input by a user; determining an identity of the user by recognizing at least one of a voice or a face of the user; generating a multi-modal information including a user profile and a user authority of the user from a database based on the determined user; determining at least one target device and an intent of the device control instruction based on the multi-modal information; determining an operation of the at least one target device based on the intent of the device control instruction and the multi-modal information; and controlling the at least one target device to perform the operation based on a processing model and the multi-modal information, characterized in that the processing model is acquired by: acquiring multiple training data; determining a target loss function, based on parameter information in the training data and parameter information predicted by a processing model; and training, through the target loss function, the processing model for changing the parameter information in the device control instruction based on the training data. acquiring multiple training data; determining a target loss function, based on parameter information in the training data and parameter information predicted by a processing model; and training, through the target loss function, the processing model for changing the parameter information in the device control instruction based on the training data.
An assembly for sampling bodily fluid, the assembly comprising a membrane penetration device comprising a membrane penetrating element for penetrating a bodily membrane to release a bodily fluid; and a collector, the membrane penetrating element and the collector being separate elements, characterised in that the collector is configured to adopt a collection position to take up a sample of the released bodily fluids and a delivery position to deliver the sample to a test element; in that the collector is configured to move between the collection position and the delivery position, and in that the assembly is configured such that movement of the collector between the collection position and the delivery position is controlled.
A gasket material to be mounted on an engine of a vehicle, comprising: a metal plate; a film made from silica and a reaction product of an acid component and a metal or a compound of a metal, wherein the metal for the film is comprised of at least one kind selected from Fe (iron), Ni (nickel), Al (aluminium), Zr (zirconium), Mg (magnesium), Mn (manganese), Ca (calcium), W (tungsten), Ce (cerium), V (vanadium), Mo (molybdenum), Li (lithium) and Cho (cobalt) and a rubber layer formed on at least one of opposite surfaces of the metal plate through the film. a metal plate; a film made from silica and a reaction product of an acid component and a metal or a compound of a metal, wherein the metal for the film is comprised of at least one kind selected from Fe (iron), Ni (nickel), Al (aluminium), Zr (zirconium), Mg (magnesium), Mn (manganese), Ca (calcium), W (tungsten), Ce (cerium), V (vanadium), Mo (molybdenum), Li (lithium) and Cho (cobalt) and a rubber layer formed on at least one of opposite surfaces of the metal plate through the film.
A fuel cell comprising: a cathode; an electrolyte; and a reduced anode separated from the cathode by the electrolyte, wherein the reduced anode includes a Ni metal phase constitution dispersed in a (La 1-x Sr x) n+1 Mn n O 3n+1 compound having a Mn-based Ruddlesden-Popper (R-P) phase constitution, wherein n is equal to or greater than one, and wherein the anode, cathode, and electrolyte are configured to form an electrochemical cell. a cathode; an electrolyte; and a reduced anode separated from the cathode by the electrolyte, wherein the reduced anode includes a Ni metal phase constitution dispersed in a (La 1-x Sr x) n+1 Mn n O 3n+1 compound having a Mn-based Ruddlesden-Popper (R-P) phase constitution, wherein n is equal to or greater than one, and wherein the anode, cathode, and electrolyte are configured to form an electrochemical cell.
A combine harvester comprising: • a feeder at the front of the harvester, the feeder comprising a housing, an input section and an output section, • a cradle frame that is movably attached at the front of the feeder, wherein the cradle frame is configured to receive a header comprising a header drive axle oriented transversely to the forward direction of the harvester when the header is coupled to the feeder, • a driveline, at least a portion of which is running alongside the feeder housing, • a transverse gearbox for transferring a rotation of the driveline to a rotation of the header drive axle, the gearbox comprising a gear mechanism mounted in a gearbox housing, a input axle coupled to the driveline and an output axle configured to be coupled to the header drive axle, characterised in that: • at least a portion of the housing of the transverse gearbox is rotatably mounted on the cradle frame, the housing or housing portion being rotatable about an axis that is oriented transversely relative to the driveline, • a mechanical link is coupled between the feeder housing and the rotatable gearbox housing or housing portion, wherein the mechanical link is configured to control the orientation of the input axle of the gearbox, regardless of the position of the cradle frame relative to the feeder. • a feeder at the front of the harvester, the feeder comprising a housing, an input section and an output section, • a cradle frame that is movably attached at the front of the feeder, wherein the cradle frame is configured to receive a header comprising a header drive axle oriented transversely to the forward direction of the harvester when the header is coupled to the feeder, • a driveline, at least a portion of which is running alongside the feeder housing, • a transverse gearbox for transferring a rotation of the driveline to a rotation of the header drive axle, the gearbox comprising a gear mechanism mounted in a gearbox housing, a input axle coupled to the driveline and an output axle configured to be coupled to the header drive axle, • at least a portion of the housing of the transverse gearbox is rotatably mounted on the cradle frame, the housing or housing portion being rotatable about an axis that is oriented transversely relative to the driveline, • a mechanical link is coupled between the feeder housing and the rotatable gearbox housing or housing portion, wherein the mechanical link is configured to control the orientation of the input axle of the gearbox, regardless of the position of the cradle frame relative to the feeder.
Stator vane adjusting device of a gas turbine having a plurality of stator vanes each swivellable about a radial axis and arranged in at least two radial planes, as well as at least two stator vane adjusting rings coupled to the respective stator vanes and rotatable in the circumferential direction by at least one actuating device, wherein the actuating device is coupled to the stator vane adjusting rings by means of a first transmission device, characterized in that a second transmission device is arranged essentially opposite to the first transmission device, characterized in that the second transmission device couples the two stator vane adjusting rings to each other.
A concealed embedded circuitry structure for facilitating electronic functionality on an article, the concealed embedded circuitry structure comprising: electronic circuitry; and an overlying polymeric layer positioned with respect to the electronic circuitry such that the polymeric layer overlies and conceals the electronic circuitry when the concealed embedded circuitry structure is applied to the article; wherein the concealed embedded circuitry structure has a tapered thickness through at least a portion thereof and has a length of at least 30 centimeters along its major axis. electronic circuitry; and an overlying polymeric layer positioned with respect to the electronic circuitry such that the polymeric layer overlies and conceals the electronic circuitry when the concealed embedded circuitry structure is applied to the article; wherein the concealed embedded circuitry structure has a tapered thickness through at least a portion thereof and has a length of at least 30 centimeters along its major axis.
A 3-D image processing device for performing sharpness compensation or color compensation for a dependent block of a dependent frame according to a base block of a base frame for a 3-D image data, wherein the 3-D image data has the base frame and the dependent frame, comprising: an image detection unit, adapted for detecting the 3-D image data to obtain the base frame and the dependent frame, obtaining the dependent block from the dependent frame, generating a plurality of pixel comparison results by calculating pixel difference values between the dependent block and a plurality of predetermined areas which are within the base frame and have the same vertical position as the dependent block, and for obtaining the base block based on the pixel comparison result having the smallest pixel difference values, wherein the base block and the dependent block constitute a visual 3-D image block; an image compensation unit, adapted for generating a compensated dependent frame by performing image compensation for the dependent frame based on the base frame; and a display device, adapted for displaying a 3-D compensated image data according to the base frame and the compensated dependent frame, wherein the base frame and the dependent frame constitute a visual 3-D image, and the base frame has more image details than the dependent frame. an image detection unit, adapted for detecting the 3-D image data to obtain the base frame and the dependent frame, obtaining the dependent block from the dependent frame, generating a plurality of pixel comparison results by calculating pixel difference values between the dependent block and a plurality of predetermined areas which are within the base frame and have the same vertical position as the dependent block, and for obtaining the base block based on the pixel comparison result having the smallest pixel difference values, wherein the base block and the dependent block constitute a visual 3-D image block; an image compensation unit, adapted for generating a compensated dependent frame by performing image compensation for the dependent frame based on the base frame; and a display device, adapted for displaying a 3-D compensated image data according to the base frame and the compensated dependent frame,
Housing structure for PCI Express expansion electronic boards provided with at least a connection portion at the board edge, said housing structure comprising: - a base on which at least a basic electronic board is attached, provided with a plurality of electric housing connectors each connectable to said connection portion at the board edge in order to connect one of said PCI Express expansion electronic boards to said basic electronic board, - at least two lateral supports, opposite each other, attached to said base and oriented parallel to the longitudinal axis of said electric housing connectors of said basic electronic board, - at least a rod removably connected between said lateral supports and located above said basic electronic board, and - at least a holding element connected to said rod and solidly coupled with at least one of said PCI Express expansion electronic boards at least in proximity to said connection portion at the board edge of the latter, said holding element being configured to rigidly hold in position said PCI Express expansion electronic board, defining a single body with at least said base, said lateral supports and said rod, said PCI Express expansion electronic board being coupled with an electric housing connector of said basic electronic board, characterized in that each of said holding elements comprises at least a connection portion provided with at least a through aperture in which said rod is inserted. - a base on which at least a basic electronic board is attached, provided with a plurality of electric housing connectors each connectable to said connection portion at the board edge in order to connect one of said PCI Express expansion electronic boards to said basic electronic board, - at least two lateral supports, opposite each other, attached to said base and oriented parallel to the longitudinal axis of said electric housing connectors of said basic electronic board, - at least a rod removably connected between said lateral supports and located above said basic electronic board, and - at least a holding element connected to said rod and solidly coupled with at least one of said PCI Express expansion electronic boards at least in proximity to said connection portion at the board edge of the latter, said holding element being configured to rigidly hold in position said PCI Express expansion electronic board, defining a single body with at least said base, said lateral supports and said rod, said PCI Express expansion electronic board being coupled with an electric housing connector of said basic electronic board, characterized in that each of said holding elements comprises at least a connection portion provided with at least a through aperture in which said rod is inserted.
A method of manufacturing a light emitting element, the method comprising: providing a wafer that includes a substrate having a first principal face and a second principal face, a dielectric multilayer film disposed on the first principal face, and a semiconductor structure disposed on the second principal face; forming modified regions in the substrate by focusing a laser beam inside the substrate via the dielectric multilayer film, and allowing cracks (Fra) to form from the modified regions to the dielectric multilayer film; and cleaving the wafer along regions where cracks were formed in the substrate, characterized in that the method further comprises, subsequent to forming the modified regions in the substrate, removing regions of the dielectric multilayer film that contain cracks (Fra). providing a wafer that includes a substrate having a first principal face and a second principal face, a dielectric multilayer film disposed on the first principal face, and a semiconductor structure disposed on the second principal face; forming modified regions in the substrate by focusing a laser beam inside the substrate via the dielectric multilayer film, and allowing cracks (Fra) to form from the modified regions to the dielectric multilayer film; and cleaving the wafer along regions where cracks were formed in the substrate, characterized in that the method further comprises, subsequent to forming the modified regions in the substrate, removing regions of the dielectric multilayer film that contain cracks (Fra).
Method (100, 200) of fabricating a composite material, the method comprising: - providing borehole solids originating from a borehole in the earth; - providing a base material comprising a polymer; - embedding the borehole solids (101, 106) as a polymer filler in the base material thereby forming the composite material. - providing borehole solids originating from a borehole in the earth; - providing a base material comprising a polymer; - embedding the borehole solids (101, 106) as a polymer filler in the base material thereby forming the composite material.