mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing signals in a sensor network, the sensor network including a plurality of sensors each sensor being in a state of an owning sensor or non-owning sensor, the method comprising: establishing, by a non-owning sensor in the network, a neighborhood of owning sensors, each of the owning sensors owning a specific source signal from amongst a plurality of source signals generated from sources; obtaining, by the non-owning sensor, signal information from the owning sensors in the neighborhood of owning sensors; comparing, by the non-owning sensor, based on the signal information, a signal reception strength of an owning sensor over a specific source signal owned by the owning sensor with a signal reception strength of the non-owning sensor over the specific source signal; and based on the comparison of the signal reception strengths, the non-owning sensor taking ownership of the specific source signal; wherein the signal information from the owning sensors include extracted source signals and sensor signals from each of the owning sensors in the neighborhood, and wherein the extracted source signals are estimates of the source signals generated from the sources. establishing, by a non-owning sensor in the network, a neighborhood of owning sensors, each of the owning sensors owning a specific source signal from amongst a plurality of source signals generated from sources; obtaining, by the non-owning sensor, signal information from the owning sensors in the neighborhood of owning sensors; comparing, by the non-owning sensor, based on the signal information, a signal reception strength of an owning sensor over a specific source signal owned by the owning sensor with a signal reception strength of the non-owning sensor over the specific source signal; and based on the comparison of the signal reception strengths, the non-owning sensor taking ownership of the specific source signal; wherein the signal information from the owning sensors include extracted source signals and sensor signals from each of the owning sensors in the neighborhood, and wherein the extracted source signals are estimates of the source signals generated from the sources.
An ablation system for directing energy to a target volume of tissue, comprising: an ablation antenna probe including at least one radiating portion configured to output electromagnetic radiation; and at least one electromagnetic shielding reflector configured for removable positioning on the outside surface at the radiating portion of the antenna probe, wherein the at least one electromagnetic shielding reflector is configured to block electromagnetic radiation from the at least one radiating portion through the at least one electromagnetic shielding reflector such that a particular directionality of the electromagnetic radiation from the at least one radiating portion to a target volume of tissue is achieved; and wherein the at least one electromagnetic shielding reflector is fixed directly onto the outside surface at the radiating portion of the antenna probe (i) by using adhesive, or (ii) by configuring the at least one electromagnetic shielding reflector as a heat-shrink tube which is configured for fitted placement over at least a portion of the ablation antenna probe. an ablation antenna probe including at least one radiating portion configured to output electromagnetic radiation; and at least one electromagnetic shielding reflector configured for removable positioning on the outside surface at the radiating portion of the antenna probe, wherein the at least one electromagnetic shielding reflector is configured to block electromagnetic radiation from the at least one radiating portion through the at least one electromagnetic shielding reflector such that a particular directionality of the electromagnetic radiation from the at least one radiating portion to a target volume of tissue is achieved; and wherein the at least one electromagnetic shielding reflector is fixed directly onto the outside surface at the radiating portion of the antenna probe (i) by using adhesive, or (ii) by configuring the at least one electromagnetic shielding reflector as a heat-shrink tube which is configured for fitted placement over at least a portion of the ablation antenna probe.
A welding structure member including an austenitic stainless steel joint, and the welding structure member has base material and weld metal, wherein, the base material has a chemical composition containing, in mass percent: C: 0.05% or less; Si: 1.0% or less; Mn: 2.0% or less; P: 0.04% or less; S: 0.01% or less; Ni: 12.0 to 27.0%; Cr: 15.0% or more to less than 20.0%; Cu: more than 3.0% to 8.0% or less; Mo: more than 2.0% to 5.0% or less; Nb: 0 to 1.0%; Ti: 0 to 0.5%; Co: 0 to 0.5%; Sn: 0 to 0.1%; W: 0 to 5.0%; Zr: 0 to 1.0%; Al: 0 to 0.5%; N: less than 0.05%; Ca: 0 to 0.01%; B: 0 to 0.01%; and rare earth metal: 0 to 0.01% in total, with the balance being Fe and unavoidable impurities, and the weld metal has a chemical composition containing, in mass percent: C: 0.10% or less; Si: 0.50% or less; Mn: 3.5% or less; P: 0.03% or less; S: 0.03% or less; Cu: 0.50% or less; Ni: 51.0% or more to 80.0% or less; Cr: 14.5 to 23.0%; Mo: 0.10% or less; Al: 0.40% or less; one or more elements selected from Nb, Ta, and Ti: 4.90% or less in total; Co: 2.5% or less; V: 0.35% or less; and W: 4.5% or less, with the balance being Fe and unavoidable impurities. C: 0.05% or less; Si: 1.0% or less; Mn: 2.0% or less; P: 0.04% or less; S: 0.01% or less; Ni: 12.0 to 27.0%; Cr: 15.0% or more to less than 20.0%; Cu: more than 3.0% to 8.0% or less; Mo: more than 2.0% to 5.0% or less; Nb: 0 to 1.0%; Ti: 0 to 0.5%; Co: 0 to 0.5%; Sn: 0 to 0.1%; W: 0 to 5.0%; Zr: 0 to 1.0%; Al: 0 to 0.5%; N: less than 0.05%; Ca: 0 to 0.01%; B: 0 to 0.01%; and rare earth metal: 0 to 0.01% in total, C: 0.10% or less; Si: 0.50% or less; Mn: 3.5% or less; P: 0.03% or less; S: 0.03% or less; Cu: 0.50% or less; Ni: 51.0% or more to 80.0% or less; Cr: 14.5 to 23.0%; Mo: 0.10% or less; Al: 0.40% or less; one or more elements selected from Nb, Ta, and Ti: 4.90% or less in total; Co: 2.5% or less; V: 0.35% or less; and W: 4.5% or less,
A system for producing a floating-in-the-air paraxial image comprising: an image producing unit , producing a paraxial image; and an optical system defining an imagery volume in space and imaging said paraxial image to said imagery volume in space, such that the image on the imagery volume in space is viewable from a viewability space, wherein said optical system comprises a mirror , characterized in that said paraxial image is a hologram; said image production unit is a hologram generation unit comprising a light source and a spatial light modulator, SLM, connected to a computerized control unit which controls the optical behaviour of each pixel of the SLM independently from the others such that light reflected from the SLM will reproduce the light field front emanated from a scene ; said optical system comprises an eyepiece ; the mirror is configured to direct light to the eyepiece in a plurality of different azimuthal angles, wherein each of said azimuthal angles determines a different location for said viewability space; and for each of said azimuthal angles the location of the imagery volume in space is the same. an image producing unit , producing a paraxial image; and an optical system defining an imagery volume in space and imaging said paraxial image to said imagery volume in space, such that the image on the imagery volume in space is viewable from a viewability space, wherein said optical system comprises a mirror , characterized in that said paraxial image is a hologram; said image production unit is a hologram generation unit comprising a light source and a spatial light modulator, SLM, connected to a computerized control unit which controls the optical behaviour of each pixel of the SLM independently from the others such that light reflected from the SLM will reproduce the light field front emanated from a scene ; said optical system comprises an eyepiece ; the mirror is configured to direct light to the eyepiece in a plurality of different azimuthal angles, wherein each of said azimuthal angles determines a different location for said viewability space; and for each of said azimuthal angles the location of the imagery volume in space is the same.
Circuit breaker device (SG) for interrupting an electrical low-voltage circuit when current or current-time limit values are exceeded, having: - a housing with connections (Ne, Na, Le, La) for conductors of the low-voltage circuit, - an interruption unit (UB) with contacts (KT) for interrupting the low-voltage circuit within the housing, - a bimetallic tripping device (BM) connected to the interruption unit (UB), and - a magnetic tripping device (MR) connected to the interruption unit (UB), wherein a resistance-based current measuring apparatus (SH) is provided for periodically ascertaining the magnitude of the current of the low-voltage circuit, and is connected to a measuring unit (ME), characterized in that the circuit breaker device has a communication unit (COM) that receives current values ascertained by the measuring unit (ME) from the measurement unit (ME) by means of a first communication connection, in that the communication unit (COM) transmits the ascertained current values in a wired or wireless manner, in that an arcing fault detection unit (AFDD1, AFDD2) is provided, which receives current values ascertained by the resistance-based current measuring apparatus (SH) for the arcing fault detection in parallel with the measuring unit (ME), in that the arcing fault detection unit (AFDD1, AFDD2) is connected to the communication unit (COM) by means of a second communication connection, which is different to the first communication connection, in order to transmit data from the arcing fault detection unit (AFDD1, AFDD2). - a housing with connections (Ne, Na, Le, La) for conductors of the low-voltage circuit, - an interruption unit (UB) with contacts (KT) for interrupting the low-voltage circuit within the housing, - a bimetallic tripping device (BM) connected to the interruption unit (UB), and - a magnetic tripping device (MR) connected to the interruption unit (UB), wherein a resistance-based current measuring apparatus (SH) is provided for periodically ascertaining the magnitude of the current of the low-voltage circuit, and is connected to a measuring unit (ME), characterized in that the circuit breaker device has a communication unit (COM) that receives current values ascertained by the measuring unit (ME) from the measurement unit (ME) by means of a first communication connection, in that the communication unit (COM) transmits the ascertained current values in a wired or wireless manner, in that an arcing fault detection unit (AFDD1, AFDD2) is provided, which receives current values ascertained by the resistance-based current measuring apparatus (SH) for the arcing fault detection in parallel with the measuring unit (ME), in that the arcing fault detection unit (AFDD1, AFDD2) is connected to the communication unit (COM) by means of a second communication connection, which is different to the first communication connection, in order to transmit data from the arcing fault detection unit (AFDD1, AFDD2).
Processing system for processing a hot glass sheet, the processing system comprising: a roller conveyor extending along a direction of conveyance (C) of the processing system and including a plurality of rollers having a set of roller ends that are located within a heated location of the processing system and aligned with each other along the direction of conveyance; a roller support structure located within the heated location of the processing system and having an elongated cooling unit including a housing defining a cooling chamber that receives and has bearings that rotatably support the aligned set of roller ends , and the cooling unit including a cooling circuit that supplies cooling liquid to the cooling chamber to provide cooling of the aligned set of roller ends and cooling of the bearings ; and characterized in that : the roller support structure including round cans that project into the cooling chamber and have respective open ends through which the aligned set of roller ends respectively project into the cooling chamber , the round cans supporting the bearings which rotatably support the aligned set of roller ends , and the housing of the cooling unit and the open ended round cans defining a flow path of the cooling circuit that supplies the cooling liquid for cooling the aligned set of roller ends and the bearings . a roller conveyor extending along a direction of conveyance (C) of the processing system and including a plurality of rollers having a set of roller ends that are located within a heated location of the processing system and aligned with each other along the direction of conveyance; a roller support structure located within the heated location of the processing system and having an elongated cooling unit including a housing defining a cooling chamber that receives and has bearings that rotatably support the aligned set of roller ends , and the cooling unit including a cooling circuit that supplies cooling liquid to the cooling chamber to provide cooling of the aligned set of roller ends and cooling of the bearings ; and characterized in that : the roller support structure including round cans that project into the cooling chamber and have respective open ends through which the aligned set of roller ends respectively project into the cooling chamber , the round cans supporting the bearings which rotatably support the aligned set of roller ends , and the housing of the cooling unit and the open ended round cans defining a flow path of the cooling circuit that supplies the cooling liquid for cooling the aligned set of roller ends and the bearings .
A method for performing a Fast Fourier Transformation (FFT), the method comprising: receiving a first input at a first radix kernel of the FFT comprising signed binary integers, the signed binary integers of the first input each representing a component of a complex number associated with a time domain signal and having a bit width; applying a fixed left shift to the signed binary integers of the first input; performing a first radix kernel operation on the shifted first input at a bit resolution higher than the bit width; applying a fixed right shift to signed binary integers of an output of a butterfly of the first radix kernel operation which are mapped to the bit width to provide a first output of the first stage of the FFT; determining a leading bit count of signed binary integers in the first output; receiving the first output at a second radix kernel of the FFT which is a second input to the second radix kernel; applying an adaptive left shift to signed binary integers of the second input based on the leading bit count; performing a second radix kernel operation on the shifted second input at the bit resolution higher than the bit width; and applying an adaptive right shift based on the leading bit count to signed binary integers of an output of a butterfly of the second radix kernel operation which are mapped to the bit width to provide a second output of the second stage of the FFT; wherein the adaptive left shift and adaptive right shift determines the bit resolution of the FFT. receiving a first input at a first radix kernel of the FFT comprising signed binary integers, the signed binary integers of the first input each representing a component of a complex number associated with a time domain signal and having a bit width; applying a fixed left shift to the signed binary integers of the first input; performing a first radix kernel operation on the shifted first input at a bit resolution higher than the bit width; applying a fixed right shift to signed binary integers of an output of a butterfly of the first radix kernel operation which are mapped to the bit width to provide a first output of the first stage of the FFT; determining a leading bit count of signed binary integers in the first output; receiving the first output at a second radix kernel of the FFT which is a second input to the second radix kernel; applying an adaptive left shift to signed binary integers of the second input based on the leading bit count; performing a second radix kernel operation on the shifted second input at the bit resolution higher than the bit width; and applying an adaptive right shift based on the leading bit count to signed binary integers of an output of a butterfly of the second radix kernel operation which are mapped to the bit width to provide a second output of the second stage of the FFT; wherein the adaptive left shift and adaptive right shift determines the bit resolution of the FFT.
MEK inhibitor for the use in the treatment or prevention of a hantavirus infection in a mammal, wherein the MEK inhibitor is CI-1040 or PD-0184264, or a pharmaceutically acceptable salt thereof.
A method for generating a media file according to ISO Base Media File Format, based on media data including one or more video frames each of which comprises a plurality of rectangular regions, the method comprises generating a plurality of tracks each track comprising a plurality of samples, each sample comprising media data corresponding to a complete set of slices for one or more rectangular regions of the plurality of rectangular regions; generating a dedicated track comprising common metadata for the plurality of tracks; generating a media file including all of (i) the plurality of tracks each track of the plurality further comprising a first box for describing metadata of the track, and (ii) the dedicated track further comprising a second box for describing metadata of the dedicated track, wherein the first box of each track of the plurality of tracks contains a first 4-letter code which is representing a track in the plurality of tracks as a sample entry type for the track, and the second box contains a second 4-letter code, different from the first 4-letter code, which is representing a sample entry type for the dedicated track. generating a plurality of tracks each track comprising a plurality of samples, each sample comprising media data corresponding to a complete set of slices for one or more rectangular regions of the plurality of rectangular regions; generating a dedicated track comprising common metadata for the plurality of tracks; generating a media file including all of (i) the plurality of tracks each track of the plurality further comprising a first box for describing metadata of the track, and (ii) the dedicated track further comprising a second box for describing metadata of the dedicated track, (i) the plurality of tracks each track of the plurality further comprising a first box for describing metadata of the track, and (ii) the dedicated track further comprising a second box for describing metadata of the dedicated track, wherein the first box of each track of the plurality of tracks contains a first 4-letter code which is representing a track in the plurality of tracks as a sample entry type for the track, and the second box contains a second 4-letter code, different from the first 4-letter code, which is representing a sample entry type for the dedicated track.
An optical fingerprint sensor module, wherein the optical fingerprint sensor module is arranged under a display screen of an electronic device, and the optical fingerprint sensor module comprising: a photodiode array having a surface; a lens having an optical axis that forms an angle with respect to a normal of the surface of the photodiode array that is between 45 degrees and 135 degrees, the lens configured to receive and refract signal light, the signal light is generated when illumination light provided by a light source is scattered or reflected off of a finger; a member defining one pinhole that is positioned off of the optical axis of the lens, the pinhole configured to transmit the signal light refracted by the lens onto the surface of the photodiode array; and electronic circuitries electrically coupled to the photodiode array, wherein the photodiode array is configured to convert the signal light incident thereon into electrical signals, and the electronic circuitries are configured to process the electrical signals to produce an image of a fingerprint pattern of the finger. a photodiode array having a surface; a lens having an optical axis that forms an angle with respect to a normal of the surface of the photodiode array that is between 45 degrees and 135 degrees, the lens configured to receive and refract signal light, the signal light is generated when illumination light provided by a light source is scattered or reflected off of a finger; a member defining one pinhole that is positioned off of the optical axis of the lens, the pinhole configured to transmit the signal light refracted by the lens onto the surface of the photodiode array; and electronic circuitries electrically coupled to the photodiode array, wherein the photodiode array is configured to convert the signal light incident thereon into electrical signals, and the electronic circuitries are configured to process the electrical signals to produce an image of a fingerprint pattern of the finger.
A method for producing a motor vehicle interior trim component from a base body , which is entirely or at least partly produced from a polymeric material, and which is limited along its circumference by side edges , wherein at least one side edge at least partially, preferably all side edges along the entire circumference of the base body , are provided with a cover element on a plastic basis, characterized in that the cover element is printed on the base body by means of a 3D printing method.
Device for limiting the rotation of the steering shaft of a steer-by-wire steering system of a motor vehicle, having a housing , which accommodates a cylindrical control piece and at least one blocking piece , which is in engagement with the latter, wherein the control piece is rotatably mounted in the housing , has at least one guide slot , at least one stop and an axial receptacle for positive reception of a driver of the steering shaft and wherein the locking piece is pivotably or displaceably mounted in the housing and has at least one link pin , which engages in a guide slot of the control piece and can be moved via the latter in such a manner that a stop surface arranged on the at least one locking piece bears against the stop of the control piece in a defined rotational position of the latter, characterised in that either a guide slot is arranged on both circular surfaces of the control piece , wherein at least one guide rail is arranged in the housing on both sides of the control piece , in each of which a blocking piece is displaceably mounted, which in each case engages with a link pin in a guide slot facing the respective guide rail or in that a guide slot is arranged on the outer surface of the control piece , wherein the blocking piece has two arms arranged parallel to one another, through which an axle is guided, via which the blocking piece is pivotably mounted in the housing . either a guide slot is arranged on both circular surfaces of the control piece , wherein at least one guide rail is arranged in the housing on both sides of the control piece , in each of which a blocking piece is displaceably mounted, which in each case engages with a link pin in a guide slot facing the respective guide rail or in that a guide slot is arranged on the outer surface of the control piece , wherein the blocking piece has two arms arranged parallel to one another, through which an axle is guided, via which the blocking piece is pivotably mounted in the housing .
A solar cell backsheet, comprising a functional layer directly facing a back encapsulant, a structural reinforcement layer and a weather-resistant layer, wherein the functional layer comprises a polyethylene alloy and semi-crystalline polymer with a melting point above 140°C.