mhurhangee/ep-ind-claims huggingface dataset:
Operating handle for opening and/or closing a door or a flap of a motor vehicle, with a grip element which is designed to be movable between a locking position and an actuating position to open and/or close a door or a flap, with a blocking element, which is designed to be movable between a release position and a detent position, wherein the blocking element in the release position allows a transfer of the grip element to the actuation position and in the detent position blocks a transfer of the grip element, wherein the operating handle has an aperture element which is in operative connection with the blocking element in such manner that the blocking element can be transferred from the detent position to the release position by actuation of the aperture element and thus enables an actuation of the grip element, wherein the aperture element, which is connected pivotably with the grip element is located on an outside of the grip element, characterized in that the operating handle is equipped with a lock cylinder which is arranged such that it can be covered entirely by the aperture element.
Device for limiting current, having variable coil impendance, comprising a Choke coil and a cooling device, wherein a further coil made of a high-temperature superconductive material is arranged in the choke coil, and wherein the current limiting device is designed to be without an iron core and the further coil is electrically short-circuited, characterised in that the further coil consists of only one short-circuited winding made of a superconductive strip conductor.
A dielectric elastomer power generation system comprising: a power generation unit including a dielectric elastomer power generation element having a dielectric elastomer layer and a pair of electrode layers that sandwich the dielectric elastomer layer; an intermediate power storage unit including a plurality of capacitors of a specific number and configured to receive input of output power from the power generation unit; a power storage unit configured to receive input of output power from the intermediate power storage unit; and a control unit configured to perform setting control by switching a mode between an input mode and an output mode, wherein in the input mode, a first number of the plurality of capacitors of the intermediate power storage unit are connected to the power generation unit such that an input series number of capacitors in series is less than or equal to the specific number, and in the output mode, a second number of the plurality of capacitors are connected to the power storage unit such that an output series number of capacitors in series is smaller than the input series number, characterised in that the control unit performs switching between the input mode and the output mode based on monitoring of a voltage of power generation by the power generation unit or detection of an elongation and contraction state of the dielectric elastomer power generation element, and the control unit performs the switching at any timing, using all sorts of judgment criteria. a power generation unit including a dielectric elastomer power generation element having a dielectric elastomer layer and a pair of electrode layers that sandwich the dielectric elastomer layer; an intermediate power storage unit including a plurality of capacitors of a specific number and configured to receive input of output power from the power generation unit; a power storage unit configured to receive input of output power from the intermediate power storage unit; and a control unit configured to perform setting control by switching a mode between an input mode and an output mode, wherein in the input mode, a first number of the plurality of capacitors of the intermediate power storage unit are connected to the power generation unit such that an input series number of capacitors in series is less than or equal to the specific number, and in the output mode, a second number of the plurality of capacitors are connected to the power storage unit such that an output series number of capacitors in series is smaller than the input series number, characterised in that the control unit performs switching between the input mode and the output mode based on monitoring of a voltage of power generation by the power generation unit or detection of an elongation and contraction state of the dielectric elastomer power generation element, and the control unit performs the switching at any timing, using all sorts of judgment criteria.
A balloon catheter for use with a guidewire, comprising: an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon connected to the distal end of the shaft, the balloon including a working surface; the balloon including a radiopaque identifier separate from the shaft for identifying the working surface; and a receiver adjacent the proximal end of the shaft and adapted for allowing the shaft to move relative to the receiver in at least the longitudinal direction. an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon connected to the distal end of the shaft, the balloon including a working surface; the balloon including a radiopaque identifier separate from the shaft for identifying the working surface; and a receiver adjacent the proximal end of the shaft and adapted for allowing the shaft to move relative to the receiver in at least the longitudinal direction.
A decorated molding article comprising: a workpiece, being a housing or component of an electronic device, a housing or component of a vehicle, or a combination thereof; and the housing or component of the vehicle being an automotive interior decoration, an automotive exterior decoration, an automotive logo, an automotive dashboard, an intelligent key, an engine start button or a combination thereof; wherein the decorated molding article is characterized by comprising: a composite layer structure, attached onto an outer surface of the workpiece via an adhesive layer, comprising: a first layer, wherein the material of the first layer is acrylonitrile butadiene styrene copolymer; and a second layer, wherein the material of the second layer is poly(methyl methacrylate) and wherein the second layer is disposed on the first layer, wherein the composite layer structure is formed by a co-extrusion molding film process, and the composite layer structure has a thickness of between 0.01 mm and 1 mm; and a decorative layer disposed between the composite layer structure and the adhesive layer. a workpiece, being a housing or component of an electronic device, a housing or component of a vehicle, or a combination thereof; and the housing or component of the vehicle being an automotive interior decoration, an automotive exterior decoration, an automotive logo, an automotive dashboard, an intelligent key, an engine start button or a combination thereof; wherein the decorated molding article is characterized by comprising: a composite layer structure, attached onto an outer surface of the workpiece via an adhesive layer, comprising: a first layer, wherein the material of the first layer is acrylonitrile butadiene styrene copolymer; and a second layer, wherein the material of the second layer is poly(methyl methacrylate) and wherein the second layer is disposed on the first layer, wherein the composite layer structure is formed by a co-extrusion molding film process, and the composite layer structure has a thickness of between 0.01 mm and 1 mm; and a decorative layer disposed between the composite layer structure and the adhesive layer. a composite layer structure, attached onto an outer surface of the workpiece via an adhesive layer, comprising: a first layer, wherein the material of the first layer is acrylonitrile butadiene styrene copolymer; and a second layer, wherein the material of the second layer is poly(methyl methacrylate) and wherein the second layer is disposed on the first layer, a first layer, wherein the material of the first layer is acrylonitrile butadiene styrene copolymer; and a second layer, wherein the material of the second layer is poly(methyl methacrylate) and wherein the second layer is disposed on the first layer, wherein the composite layer structure is formed by a co-extrusion molding film process, and the composite layer structure has a thickness of between 0.01 mm and 1 mm; and a decorative layer disposed between the composite layer structure and the adhesive layer.
Headrest comprising at least: - a headrest body, - a base supporting element, on which the headrest body is arranged in a height-adjustable manner and so as to be arrestable in a height position (HP, HP1, HP2), - a holding element, by which the headrest body is arranged in a height-adjustable manner on the base supporting element, wherein the holding element is able to be releasably arrested in the set height position (HP, HP1, HP2), the holding element engages through the base supporting element, and the holding element is connected to the headrest body on both sides of the base supporting element, and - a locking element for unlocking and locking the holding element in the set height position (HP, HP1, HP2), wherein the holding element is guided in a height-movable manner on the base supporting element. - a headrest body, - a base supporting element, on which the headrest body is arranged in a height-adjustable manner and so as to be arrestable in a height position (HP, HP1, HP2), - a holding element, by which the headrest body is arranged in a height-adjustable manner on the base supporting element, wherein the holding element is able to be releasably arrested in the set height position (HP, HP1, HP2), the holding element engages through the base supporting element, and the holding element is connected to the headrest body on both sides of the base supporting element, and - a locking element for unlocking and locking the holding element in the set height position (HP, HP1, HP2),
A large area functional metrology system for inspecting a nanophotonic device, the nanophotonic device being a wire-grid polarizer, WGP, the large area functional metrology system comprising: a light source configured to irradiate light on a portion of the nanophotonic device; an optical component; one or more camera sensors (110A, 110B) configured to record images of a portion of the nanophotonic device subjected to the light irradiating from the light source, the light comprising polarization content used for generating a contrast ratio map of the WGP in a narrow spectral band, wherein the one or more camera sensors record a reference image from light from a reference; a detector to process the images to detect one or more defects in the nanophotonic device, wherein the one or more defects are identified using a combination of two types of defect signatures, wherein the two types of defect signatures are functional signatures and spatial signatures, wherein the functional signatures are based on the contrast ratio of the WGP; wherein the large area functional metrology system is configured to determine a root-cause corresponding to a deviation from a desired nanofabrication process by matching the combination of two types of defect signatures to the root-cause. a light source configured to irradiate light on a portion of the nanophotonic device; an optical component; one or more camera sensors (110A, 110B) configured to record images of a portion of the nanophotonic device subjected to the light irradiating from the light source, the light comprising polarization content used for generating a contrast ratio map of the WGP in a narrow spectral band, wherein the one or more camera sensors record a reference image from light from a reference; a detector to process the images to detect one or more defects in the nanophotonic device, wherein the one or more defects are identified using a combination of two types of defect signatures, wherein the two types of defect signatures are functional signatures and spatial signatures, wherein the functional signatures are based on the contrast ratio of the WGP; wherein the large area functional metrology system is configured to determine a root-cause corresponding to a deviation from a desired nanofabrication process by matching the combination of two types of defect signatures to the root-cause.
A coated substrate comprising a transparent substrate provided with a stack of thin layers comprising an alternating arrangement of n infrared radiation reflecting functional layers and n+1 dielectric coatings, with n ≥ 1, such that each functional layer is surrounded by dielectric coatings, characterized in that the stack further comprises two contact layers for at least one of the n infrared radiation reflecting functional layers, comprising an oxide of zinc combined with at least 2 distinct elements, X and Y, selected from the group comprising titanium, aluminium or selected from the group comprising indium, gallium or selected from the group comprising aluminium, magnesium, wherein the two contact layers are above and below and in direct contact with the at least one of the infrared radiation reflecting functional layers and wherein the stack comprises, in order starting from the substrate A first dielectric layer, A first contact layer, below and in contact with the first IR functional layer, An first IR functional layer, A second contact layer, above and in contact with the first IR functional layer, A second dielectric layer, A topcoat layer. the stack further comprises two contact layers for at least one of the n infrared radiation reflecting functional layers, comprising an oxide of zinc combined with at least 2 distinct elements, X and Y, selected from the group comprising titanium, aluminium or selected from the group comprising indium, gallium or selected from the group comprising aluminium, magnesium, wherein the two contact layers are above and below and in direct contact with the at least one of the infrared radiation reflecting functional layers and wherein the stack comprises, in order starting from the substrate A first dielectric layer, A first contact layer, below and in contact with the first IR functional layer, An first IR functional layer, A second contact layer, above and in contact with the first IR functional layer, A second dielectric layer, A topcoat layer. A first dielectric layer, A first contact layer, below and in contact with the first IR functional layer, An first IR functional layer, A second contact layer, above and in contact with the first IR functional layer, A second dielectric layer, A topcoat layer.
A hydraulic excavator comprising: a lower track structure; an upper swing structure swingably attached to an upper portion of the lower track structure; a front work device attached to the upper swing structure; an operation device (45,46,47) that operates operation targets including the lower track structure, the upper swing structure, and the front work device; a lock lever switched to one of a lock position that disables an operation of the operation targets by the operation device (45,46,47) and a lock release position that permits the operation of the operation targets by the operation device (45,46,47); a camera (201,202,203) that is attached to the upper swing structure and records an image of surroundings of the upper swing structure; a controller configured to detect an obstacle present around the upper swing structure on a basis of the image; and a notifying device (301,302) that makes a notification that the obstacle is detected when the controller detects the obstacle, characterised in that the controller is configured to permit the notification by the notifying device (301,302) when the lock lever is at the lock release position and when the operation device (45,46,47) is maintained in a non-operating state from a time of a start of the controller and, when the lock lever is at the lock release position and when the operation device (45,46,47) is changed from an operating state to a non-operating state, permit the notification by the notifying device (301,302) upon the non-operating state being continued for a predetermined time. a lower track structure; an upper swing structure swingably attached to an upper portion of the lower track structure; a front work device attached to the upper swing structure; an operation device (45,46,47) that operates operation targets including the lower track structure, the upper swing structure, and the front work device; a lock lever switched to one of a lock position that disables an operation of the operation targets by the operation device (45,46,47) and a lock release position that permits the operation of the operation targets by the operation device (45,46,47); a camera (201,202,203) that is attached to the upper swing structure and records an image of surroundings of the upper swing structure; a controller configured to detect an obstacle present around the upper swing structure on a basis of the image; and a notifying device (301,302) that makes a notification that the obstacle is detected when the controller detects the obstacle, characterised in that the controller is configured to permit the notification by the notifying device (301,302) when the lock lever is at the lock release position and when the operation device (45,46,47) is maintained in a non-operating state from a time of a start of the controller and, when the lock lever is at the lock release position and when the operation device (45,46,47) is changed from an operating state to a non-operating state, permit the notification by the notifying device (301,302) upon the non-operating state being continued for a predetermined time.
An apparatus for separating drilling or completion fluids, comprising: a fluid container, wherein the fluid container is operable to at least temporarily contain a drilling or completion fluid; an inlet port in the fluid container; at least one outlet port (106,110) in the fluid container; and an excitation element, characterised in that the excitation element is operable to impart a pre-determined vibratory force on the drilling or completion fluid, wherein the pre-determined vibratory force comprises at least one of a shape, an intensity, and a frequency that is based, at least in part, on at least one of a rheological characteristic, a particle size, and a density of the drilling or completion fluid. a fluid container, wherein the fluid container is operable to at least temporarily contain a drilling or completion fluid; an inlet port in the fluid container; at least one outlet port (106,110) in the fluid container; and an excitation element, characterised in that the excitation element is operable to impart a pre-determined vibratory force on the drilling or completion fluid, wherein the pre-determined vibratory force comprises at least one of a shape, an intensity, and a frequency that is based, at least in part, on at least one of a rheological characteristic, a particle size, and a density of the drilling or completion fluid.
A method, comprising: towing at least a portion of a seismic survey spread to a first position; imparting, by a marine vibratory source (110, 210) comprising a plurality of marine vibrators, a composite swept seismic signal including a plurality of randomized subsweeps (521, 522, 523), wherein the plurality of marine vibrators comprise marine vibrators configured to impart low frequency signals and marine vibrators configured to impart high frequency signals, such that each of the plurality of marine vibrators respectively impart the plurality of randomized subsweeps (521, 522, 523) having different frequencies relative to one another in parallel to form the composite swept seismic signal, wherein the plurality of randomized subsweeps comprise randomized subsweeps (521, 522, 523) with low frequencies and randomized subsweeps with high frequencies, and receiving a respective return for each of the plurality of randomized subsweeps; wherein the plurality of randomized subsweeps do not overlap in frequency, and characterized in that the frequency gaps between the subsweeps are randomized in either space or time or in both space and time. towing at least a portion of a seismic survey spread to a first position; imparting, by a marine vibratory source (110, 210) comprising a plurality of marine vibrators, a composite swept seismic signal including a plurality of randomized subsweeps (521, 522, 523), wherein the plurality of marine vibrators comprise marine vibrators configured to impart low frequency signals and marine vibrators configured to impart high frequency signals, such that each of the plurality of marine vibrators respectively impart the plurality of randomized subsweeps (521, 522, 523) having different frequencies relative to one another in parallel to form the composite swept seismic signal, wherein the plurality of randomized subsweeps comprise randomized subsweeps (521, 522, 523) with low frequencies and randomized subsweeps with high frequencies, and receiving a respective return for each of the plurality of randomized subsweeps; wherein the plurality of randomized subsweeps do not overlap in frequency, and characterized in that the frequency gaps between the subsweeps are randomized in either space or time or in both space and time.
A communications method, performed by a terminal device or a chip for the terminal device, the method comprising: determining (S501a) a first measurement object corresponding to a first secondary component carrier, SCC; determining (S502a), that the first SCC is a CC where at least 6 cells and 24 SSB are required to be monitored, when there is an association relationship between the first measurement object and a first reporting configuration for the first SCC, and a reporting type of the first reporting configuration is a synchronization signal block, SSB, type; performing measurement on the first SCC; wherein the 24 SSBs have different physical cell identifiers and/or time indexes; wherein the first SCC is within a frequency band that belongs to frequency range 2; wherein a frequency range of the frequency range 2 ranges from 24250 MHz to 52600 MHz. determining (S501a) a first measurement object corresponding to a first secondary component carrier, SCC; determining (S502a), that the first SCC is a CC where at least 6 cells and 24 SSB are required to be monitored, when there is an association relationship between the first measurement object and a first reporting configuration for the first SCC, and a reporting type of the first reporting configuration is a synchronization signal block, SSB, type; performing measurement on the first SCC; wherein the 24 SSBs have different physical cell identifiers and/or time indexes; wherein the first SCC is within a frequency band that belongs to frequency range 2; wherein a frequency range of the frequency range 2 ranges from 24250 MHz to 52600 MHz.