mhurhangee/patent-ind-claim-en huggingface dataset:
An LED light strip assembly comprising: a structural core formed of an elastically deformable insulating material including one or more integrally formed, alternating light producing sections and clip sections , each light producing section containing a plurality of LED elements provided on the structural core , first and second electrical connections each for transmission of power from an underside voltage bus through the structural core to the LED elements and supporting circuitry, and control signal traces for transmitting control signals connecting to the LED elements , each clip section having a reduced width in relation to each light producing section , a removable portion extending across the width of the clip section , a pair of clip assembly alignment holes positioned on either side of the removable portion , at least two pairs of LED control signal contacts positioned on opposite sides of the removable portion , the pairs of LED control signal contacts electrically connected to each other by a signal trace across the removable portion , and connected by a signal trace to one or more LED elements in a main light producing section immediately adjacent the removable portion , and a least one pair of voltage bus contacts positioned on opposite sides of the removable portion , said clip section being adapted for attachment of a clip assembly for controlling the operation of the LED light strip . a structural core formed of an elastically deformable insulating material including one or more integrally formed, alternating light producing sections and clip sections , each light producing section containing a plurality of LED elements provided on the structural core , first and second electrical connections each for transmission of power from an underside voltage bus through the structural core to the LED elements and supporting circuitry, and control signal traces for transmitting control signals connecting to the LED elements , each clip section having a reduced width in relation to each light producing section , a removable portion extending across the width of the clip section , a pair of clip assembly alignment holes positioned on either side of the removable portion , at least two pairs of LED control signal contacts positioned on opposite sides of the removable portion , the pairs of LED control signal contacts electrically connected to each other by a signal trace across the removable portion , and connected by a signal trace to one or more LED elements in a main light producing section immediately adjacent the removable portion , and a least one pair of voltage bus contacts positioned on opposite sides of the removable portion , said clip section being adapted for attachment of a clip assembly for controlling the operation of the LED light strip .
A method for monitoring a user equipment, UE, in a wireless communication system, the method performed by a first network node device, the first network node device including a transceiver, a processor and a memory, the method comprising: receiving a first message from a second network node, the first message including a time duration, the time duration indicating a time during which the UE stays reachable in order to allow a server to deliver downlink data; after receiving the first message, monitoring the UE for when the UE will become reachable; and based on the monitoring, sending a second message to a third network node regarding UE reachability, characterized in that the UE is in an extended Discontinuous Reception , DRX, mode, the extended DRX mode is a function for reducing the UE's power consumption by monitoring a physical channel to receive a paging message at specific period dependent on an extended DRX cycle value, the extended DRX cycle value is configured to a maximum of several tens of minutes greater than a legacy DRX cycle value, wherein the time duration is used to determine how early the second message should be transmitted before a paging occasion of the UE. receiving a first message from a second network node, the first message including a time duration, the time duration indicating a time during which the UE stays reachable in order to allow a server to deliver downlink data; after receiving the first message, monitoring the UE for when the UE will become reachable; and based on the monitoring, sending a second message to a third network node regarding UE reachability, characterized in that the UE is in an extended Discontinuous Reception , DRX, mode, the extended DRX mode is a function for reducing the UE's power consumption by monitoring a physical channel to receive a paging message at specific period dependent on an extended DRX cycle value, the extended DRX cycle value is configured to a maximum of several tens of minutes greater than a legacy DRX cycle value, wherein the time duration is used to determine how early the second message should be transmitted before a paging occasion of the UE.
An aerosol delivery device , comprising: a reservoir at least partially filled with an aerosol precursor composition ; a bubble jet head in fluid communication with the reservoir , the bubble jet head being configured to dispense the aerosol precursor composition from the reservoir ; and an atomizer configured to heat the aerosol precursor composition dispensed by the bubble jet head to produce an aerosol, characterised in that the bubble jet head and the atomizer are fixedly coupled to one another to form a combined unit, such that the combined atomizer and bubble jet head is insertable into a cartridge of the aerosol delivery device as the combined unit. a reservoir at least partially filled with an aerosol precursor composition ; a bubble jet head in fluid communication with the reservoir , the bubble jet head being configured to dispense the aerosol precursor composition from the reservoir ; and an atomizer configured to heat the aerosol precursor composition dispensed by the bubble jet head to produce an aerosol, characterised in that the bubble jet head and the atomizer are fixedly coupled to one another to form a combined unit, such that the combined atomizer and bubble jet head is insertable into a cartridge of the aerosol delivery device as the combined unit.
A method of providing a user interface of a portable terminal , the method comprising: executing (S610) a voice recognition application; switching (S640) to a handwriting input mode, in response to a mode switching request from a user; receiving (S640) handwritten data on a touch screen of the portable terminal from the user; recognizing (S670) the received handwritten data, and converting the handwritten data to text data having a preset format; converting the text data to voice data, and transmitting (S680) the voice data to a voice recognition server by the voice recognition application; receiving (S680) a search result from the voice recognition server by the voice recognition application; and displaying (S680), on the touch screen of the voice recognition application, the converted text data and the search result. executing (S610) a voice recognition application; switching (S640) to a handwriting input mode, in response to a mode switching request from a user; receiving (S640) handwritten data on a touch screen of the portable terminal from the user; recognizing (S670) the received handwritten data, and converting the handwritten data to text data having a preset format; converting the text data to voice data, and transmitting (S680) the voice data to a voice recognition server by the voice recognition application; receiving (S680) a search result from the voice recognition server by the voice recognition application; and displaying (S680), on the touch screen of the voice recognition application, the converted text data and the search result.
A power feeding apparatus comprising: a power feeding unit being a resonance circuit including a capacitor and a power feeding coil , the power feeding unit is configured to supply electric power to a power receiving apparatus through a magnetic field, a power feeding control unit configured to supply a test signal to the power feeding unit , a measuring unit configured to measure a Quality factor, Q-factor, of the power feeding unit when the power feeding control unit supplies the test signal to the power feeding unit , a receiving unit configured to receive a set value from a communication unit of the power receiving apparatus , and a foreign substance detection unit configured to determine whether there is a foreign substance in the magnetic field based on the set value and the measured Q-factor, wherein the power feeding control unit is configured to supply a first electric energy (W1) through the resonance circuit to the power feeding unit , which is the necessary quantity to make it possible for the power receiving apparatus to communicate (S901), after the measuring unit measures the Q-factor, the first electric energy (W1) is larger than an electric energy of the test signal. a power feeding unit being a resonance circuit including a capacitor and a power feeding coil , the power feeding unit is configured to supply electric power to a power receiving apparatus through a magnetic field, a power feeding control unit configured to supply a test signal to the power feeding unit , a measuring unit configured to measure a Quality factor, Q-factor, of the power feeding unit when the power feeding control unit supplies the test signal to the power feeding unit , a receiving unit configured to receive a set value from a communication unit of the power receiving apparatus , and a foreign substance detection unit configured to determine whether there is a foreign substance in the magnetic field based on the set value and the measured Q-factor,
A method of determining a pose of a camera mounted at a known position within or adjacent a vehicle scene, the method including: a) capturing an image of the vehicle scene by the camera from a current pose of the camera , the vehicle scene including an interior of a vehicle ; wherein the current camera pose includes a three dimensional position and a three dimensional orientation of the camera and is defined relative to a predefined frame of reference; b) loading reference data indicative of the vehicle scene, the reference data including three dimensional model which includes positions and orientations of known features within the vehicle scene, wherein the known features include objects within a vehicle cabin that are fixed in time and space relative to a frame of reference defined relative to a region of the vehicle ; c) identifying, within the image, the geometric appearance of one or more of the known features; and d) determining, from the geometric appearance, the three dimensional position and orientation of the camera relative to the known features identified in step c) and calculating a pose of the camera within the vehicle scene in the frame of reference. a) capturing an image of the vehicle scene by the camera from a current pose of the camera , the vehicle scene including an interior of a vehicle ; wherein the current camera pose includes a three dimensional position and a three dimensional orientation of the camera and is defined relative to a predefined frame of reference; b) loading reference data indicative of the vehicle scene, the reference data including three dimensional model which includes positions and orientations of known features within the vehicle scene, wherein the known features include objects within a vehicle cabin that are fixed in time and space relative to a frame of reference defined relative to a region of the vehicle ; c) identifying, within the image, the geometric appearance of one or more of the known features; and d) determining, from the geometric appearance, the three dimensional position and orientation of the camera relative to the known features identified in step c) and calculating a pose of the camera within the vehicle scene in the frame of reference.
Device for guiding a wing, notably a side door of a motor vehicle , relative to a body structure of the motor vehicle , the guide device comprising an articulated quadrilateral system comprising articulations , the wing is a sliding wing, the device comprising: - a rail fixed to such a body structure , - a sliding wing support intended to be fixed to such a sliding wing, - a movement means cooperating with the rail so as to slide with respect to the rail , the articulated quadrilateral system comprises: - a first link comprising a first articulation between a first end of the first link and the movement means, and a second articulation between a second end of the first link and the sliding wing support , - a second link comprising a third articulation between a third end of the second link and the movement means, and a fourth articulation between a fourth end of the fourth link and the sliding wing support , characterized in that at least one of the articulations comprises a cam and cam follower system, and in that the at least one articulation of the articulated quadrilateral system , notably the third articulation , provides, between at least one end, notably the third end , of the at least one link, notably the second link , and the movement means, a clearance so as to allow a movement in translation of the at least one end with respect to the movement means when the sliding wing passes from a closed position (PF) to an open position (PO), and vice versa. - a rail fixed to such a body structure , - a sliding wing support intended to be fixed to such a sliding wing, - a movement means cooperating with the rail so as to slide with respect to the rail , - a first link comprising a first articulation between a first end of the first link and the movement means, and a second articulation between a second end of the first link and the sliding wing support , - a second link comprising a third articulation between a third end of the second link and the movement means, and a fourth articulation between a fourth end of the fourth link and the sliding wing support ,
An object recognition method comprising: acquiring an input image from an image sensor; extracting a road region from the input image using a scene segmentation algorithm; calculating a ratio of an area of the extracted road region to a size of the input image; determining what number of object candidate regions is to be used to detect an object of interest by applying the ratio to a default number of object candidate regions; in a faster region-based convolutional neural network, R-CNN , comprising a convolutional neural network , a region proposal network, RPN , and a detection network: extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining , in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing , in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions. acquiring an input image from an image sensor; extracting a road region from the input image using a scene segmentation algorithm; calculating a ratio of an area of the extracted road region to a size of the input image; determining what number of object candidate regions is to be used to detect an object of interest by applying the ratio to a default number of object candidate regions; in a faster region-based convolutional neural network, R-CNN , comprising a convolutional neural network , a region proposal network, RPN , and a detection network: extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining , in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing , in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions. extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining , in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing , in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions.
A method for communication by a user equipment, UE , the method comprising: receiving a configuration for a modified synchronization channel, wherein the modified synchronization channel further comprises a modified synchronization signal, the modified synchronization signal having a signal density more dense than a signal density of a non-modified synchronization signal and having a longer period between repetitions than the non-modified synchronization signal, wherein a higher signal density is associated with a higher repetition over a shorter period of time than the non-modified synchronization signal; and periodically awakening and synchronizing to a communication channel using the modified synchronization channel. receiving a configuration for a modified synchronization channel, wherein the modified synchronization channel further comprises a modified synchronization signal, the modified synchronization signal having a signal density more dense than a signal density of a non-modified synchronization signal and having a longer period between repetitions than the non-modified synchronization signal, wherein a higher signal density is associated with a higher repetition over a shorter period of time than the non-modified synchronization signal; and periodically awakening and synchronizing to a communication channel using the modified synchronization channel.
An ion delivery manifold for use with an ionizer of the type that converts a non-ionized gas stream into an ionized gas stream, comprising an outside surface and an enclosed gas transport channel bounded by an interior surface of the ion delivery manifold , the gas transport channel comprising at least one inlet configured to receive the ionized gas stream from the ionizer; at least first and second outlets configured to divide the ionized gas stream flowing through the gas transport channel into first and second neutralization gas streams directed toward respective first and second regions of a wide-area target, wherein the ion flow rate exiting the first outlet is higher than the ion flow rate exiting the second outlet, wherein at least a portion of the transport channel includes a curved interior surface, wherein the first and second outlets extend through the portion of the transport channel with the curved interior surface, wherein the first and second outlets are short tubes that are substantially tangentially aligned with the curvature of the interior surface of the transport channel, wherein the short tubes are configured to remove the centripetal force, and provide optimal straight line momentum toward the respective first and second regions of the wide-area target.
A method of forming plastic preforms into plastic containers , wherein a plastic preform is expanded into the plastic container by exposure to a flowable medium, wherein the flowable medium is stored under a first pressure in a first pressure reservoir and under a second pressure which is higher than the first pressure in a second pressure reservoir, and wherein the plastic preform is acted upon by a first blowing pressure via a flow connection between the first pressure reservoir and the plastic preform and is acted upon by the second blowing pressure via a flow connection between the second pressure reservoir and the plastic preform, and wherein flowable medium is at least temporarily returned to the first pressure reservoir, at least one time and/or period for a return into the first pressure reservoir is determined as a function of a time and/or period which is characteristic for the application of pressure from a pressure reservoir to the plastic preform, characterized in that the start time of a return of the flowable medium to the x-te reservoir based on the equation start time recycling Px = Start time pressure build - up Px + n * ((3600/station power)/number of forming stations) - tx, wherein tx is a constant, is determined and tx is <50 ms, preferably <40 ms and particularly preferably <20 ms. the start time of a return of the flowable medium to the x-te reservoir based on the equation start time recycling Px = Start time pressure build - up Px + n * ((3600/station power)/number of forming stations) - tx, wherein tx is a constant, is determined and tx is <50 ms, preferably <40 ms and particularly preferably <20 ms.
A catalytic process for producing propylene glycol by the selective reduction of glycerol comprising a catalyst of copper and cerium supported on alumina, wherein the concentration of Cu is of up to 15% in weight, the concentration of Ce is of up to 15% in weight.
A press hardened coated steel part with high resistance to delayed fracture, the coating containing (Fe x -Al y ) intermetallic compounds resulting from the diffusion of iron into an aluminum or an aluminum-based alloy, or an aluminum alloy of a precoating, wherein the chemical composition of the steel comprises, in weight: 0.16 % ≤ C ≤ 0.42 % 0.1 % ≤ Mn ≤ 3 % 0.07 % ≤ Si ≤ 1.60 % 0.002 % ≤ AI ≤ 0.070 % 0.02 % ≤ Cr ≤ 1.0 % , 0.0005 ≤ B ≤ 0.005 % 0.002 % ≤ Mg ≤ 0.007 % 0.002 % ≤ Ti ≤ 0.11 % 0.0008 % ≤ O ≤ 0.005 % wherein Ti × O 2 × 10 7 ≤ 2 0.001 % ≤ N ≤ 0.007 % 0.001 % ≤ S ≤ 0.005 % 0.001 % ≤ P ≤ 0.025 % and optionally one or more elements selected from the list of: 0.005 % ≤ Ni ≤ 0.23 % 0.005 % ≤ Nb ≤ 0.060 % , the remainder being Fe and unavoidable impurities, and wherein the microstructure comprises at least 95% martensite. wherein the chemical composition of the steel comprises, in weight: 0.16 % ≤ C ≤ 0.42 % 0.1 % ≤ Mn ≤ 3 % 0.07 % ≤ Si ≤ 1.60 % 0.002 % ≤ AI ≤ 0.070 % 0.02 % ≤ Cr ≤ 1.0 % , 0.0005 ≤ B ≤ 0.005 % 0.002 % ≤ Mg ≤ 0.007 % 0.002 % ≤ Ti ≤ 0.11 % 0.0008 % ≤ O ≤ 0.005 % wherein Ti × O 2 × 10 7 ≤ 2 0.001 % ≤ N ≤ 0.007 % 0.001 % ≤ S ≤ 0.005 % 0.001 % ≤ P ≤ 0.025 % and optionally one or more elements selected from the list of: 0.005 % ≤ Ni ≤ 0.23 % 0.005 % ≤ Nb ≤ 0.060 % , the remainder being Fe and unavoidable impurities, and wherein the microstructure comprises at least 95% martensite.