mhurhangee/ep-ind-claims huggingface dataset:
A vehicle door structure, comprising: - an outside handle turnably provided to a door outer panel; - a movable member provided on a door side and being capable of moving together with turn of the outside handle; - a latch device configured to engage and disengage a door with and from a vehicle body in conjunction with the movement of the movable member; and - a reinforcing member provided between the door outer panel and a door inner panel,wherein - a vehicle width direction wall portion and a front-rear direction wall portion are formed in the reinforcing member, the vehicle width direction wall portion extending in a vehicle width direction, and - a locking member is provided on the front-rear direction wall portion at a portion facing the movable member, characterised in that the front-rear direction wall portion bends from an inner end, in the vehicle width direction, of the vehicle width direction wall portion and extends in a vehicle front-rear direction. - an outside handle turnably provided to a door outer panel; - a movable member provided on a door side and being capable of moving together with turn of the outside handle; - a latch device configured to engage and disengage a door with and from a vehicle body in conjunction with the movement of the movable member; and - a reinforcing member provided between the door outer panel and a door inner panel,wherein - a vehicle width direction wall portion and a front-rear direction wall portion are formed in the reinforcing member, the vehicle width direction wall portion extending in a vehicle width direction, and - a locking member is provided on the front-rear direction wall portion at a portion facing the movable member,
An apparatus comprising: a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: identify a first period for a heated system (300, 400), the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system (300, 400), wherein a zero power event is a power event during which no power is applied to the heated system (300, 400); identify a second period for the heated system (300, 400), the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system (300, 400); shift a portion of a second power event (234, 236) of the second set of power events to the first set of power events to remove the first zero power event from the first period, wherein a portion includes a subpart or all of the second power event (234, 236). a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: identify a first period for a heated system (300, 400), the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system (300, 400), wherein a zero power event is a power event during which no power is applied to the heated system (300, 400); identify a second period for the heated system (300, 400), the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system (300, 400); shift a portion of a second power event (234, 236) of the second set of power events to the first set of power events to remove the first zero power event from the first period, wherein a portion includes a subpart or all of the second power event (234, 236). identify a first period for a heated system (300, 400), the first period including a first set of power events, during which power is applied to the heated system, and a first zero power event for the heated system (300, 400), wherein a zero power event is a power event during which no power is applied to the heated system (300, 400); identify a second period for the heated system (300, 400), the second period including a second set of power events, during which power is applied to the heated system, and a second zero power event for the heated system (300, 400); shift a portion of a second power event (234, 236) of the second set of power events to the first set of power events to remove the first zero power event from the first period, wherein a portion includes a subpart or all of the second power event (234, 236).
Device with compartments for the accommodation of plate-like objects, such as glass panes, with rods that form compartments and arranged in frames and are parallel to one another, and with a base rack, on which the frames with rods that form compartments are arranged projecting upward in the position of use, wherein at least several of the frames with the rods that form compartments are oriented obliquely with respect to the base rack, and wherein at least one of the frames with rods that form compartments is mounted on the base rack in a pivotable manner, characterized in that the rods that form compartments are tilted relative to planes that are perpendicular to the plane of the base rack and run crosswise to the frame with rods that form compartments, and encompass acute angles (α) with the axis around which the frames can be pivoted.
A kit suitable for implementing a method for controlling the spread of dirofilariosis, such as heartworm, to a non-infested dog from at least one dog infested with filarioid nematodes, such as Dirofilaria spp, and having microfilaria that circulate in the bloodstream, wherein said kit comprises several packaging units, said packaging units comprising a topical combination of dinotefuran, permethrin, and pyriproxyfen, and an oral composition comprising milbemycin oxime, wherein the weight ratio of permethrin to dinotefuran ranges from 7-8.
Fibre application machine for the production of composite material parts comprising: - an application support comprising a main belt conveyor comprising an endless belt mounted between at least two return systems (32, 33), including at least one motorized return system, said belt comprising an upper strand constituting an application surface, and a plate disposed between the two return systems on which the upper strand rests when fibres are applied, - a fibre application head with a compaction system comprising at least one application roller for applying by contact the fibres onto the application surface to produce a part, and - a displacement system able to perform a relative displacement of the head with respect to the application surface, said machine comprising a control unit able to control the motorized return system for evacuating from the endless belt the part or parts present on said endless belt, characterized in that the displacement system comprises a rotational drive system able to rotate the main belt conveyor about a vertical axis. - an application support comprising a main belt conveyor comprising an endless belt mounted between at least two return systems (32, 33), including at least one motorized return system, said belt comprising an upper strand constituting an application surface, and a plate disposed between the two return systems on which the upper strand rests when fibres are applied, - a fibre application head with a compaction system comprising at least one application roller for applying by contact the fibres onto the application surface to produce a part, and - a displacement system able to perform a relative displacement of the head with respect to the application surface,
A radiator assembly having a longitudinal central axis for a base station antenna, comprising: two dipoles cross-arranged around the longitudinal central axis, each dipole having two dipole arms, wherein each dipole arm is equipped with a respective hook-like sheet metal feeder that has a free end portion, and the hook-like feeder is capacitively coupled with an associated dipole arm, wherein each dipole arm is made of a metal sheet, and the dipole arm comprises a feeder stem extending longitudinally and a radiating portion extending transversely by reference to the longitudinal central axis, and wherein at least some of the feeder stems or at least some of the hook-like feeders include at least two longitudinally-extending bends with respect to the longitudinal central axis. two dipoles cross-arranged around the longitudinal central axis, each dipole having two dipole arms, wherein each dipole arm is equipped with a respective hook-like sheet metal feeder that has a free end portion, and the hook-like feeder is capacitively coupled with an associated dipole arm, wherein each dipole arm is made of a metal sheet, and the dipole arm comprises a feeder stem extending longitudinally and a radiating portion extending transversely by reference to the longitudinal central axis, and wherein at least some of the feeder stems or at least some of the hook-like feeders include at least two longitudinally-extending bends with respect to the longitudinal central axis.
Method for recording image information using a mobile terminal and for transmitting the image information to a server device connected to the terminal for data transfer, wherein the image information of a document is recorded with a camera device of the mobile terminal, initiated by a user, wherein in a main step H1 the image information is recorded by the user using the camera device of the terminal, wherein in a main step H2 the terminal transmits the image information and metadata to the server device, characterised in that in a main step H3 the server device temporarily stores the image information together with a first document key, which is uniquely assignable to the image information, in a server cache of the server device and wherein in a main step H4 the server device stores the image information together with a second document key, which is uniquely assignable to the document within a non-volatile server memory, in the non-volatile server memory if a predefined storage condition is satisfied. characterised in that in a main step H3 the server device temporarily stores the image information together with a first document key, which is uniquely assignable to the image information, in a server cache of the server device and wherein in a main step H4 the server device stores the image information together with a second document key, which is uniquely assignable to the document within a non-volatile server memory, in the non-volatile server memory if a predefined storage condition is satisfied.
A folding bicycle comprising a front wheel, a rear wheel and a frame wherein, the frame comprises a front frame portion on which the front wheel is mounted, via a pivoting fork, and a rear frame portion on which the rear wheel is mounted, the front frame portion comprises an upper bar, a seat bar and an oblique bar, the rear frame portion comprises at least one seat stay, at least one lower bar and the seat bar, and wherein, the oblique bar comprises an upper oblique rod and a lower oblique rod, the lower oblique rod, the upper oblique rod, the upper bar and the seat bar are interconnected by joints (P1, P2, P3, P4), in this order, so as to form an articulated quadrilateral deformable between a folded position and an unfolded position, the articulated quadrilateral is configured in such a way that, when deforming towards its folded position, the bicycle folds in the longitudinal direction, the front and rear wheels move transversely away from each other while moving towards each other in the longitudinal direction until the front wheel comes to overlap with the rear wheel in a transverse direction of the bicycle, and the joints (P1, P2, P3, P4) are revolute joints and axes (11, 12, 13, 14) of these joints intersect at a same point.
A vacuum insulated glass product, comprising: a first glass substrate; a second glass substrate disposed opposite to the first glass substrate; a sealing structure provided between the first glass substrate and the second glass substrate and adjacent to edges of the first glass substrate and the second glass substrate and used for airtight binding of the first glass substrate and the second glass substrate to form a vacuum cavity; and a support provided inside the vacuum cavity for bearing pressure from the first glass substrate and the second glass substrate, characterized in that the sealing structure being disposed adjacent to the edges of the first glass substrate and the second glass substrate and comprises: metal layers (7, 9) which are fixedly bound to opposite surfaces of the first glass substrate and the second glass substrate, respectively, and an intermediate solder layer which connects the two metal layers (7, 9); and the metal layers (7, 9) have arc-shaped transition structures at the corners areas of the glass substrates (6, 10), wherein a width of a straight segment of the metal layers (7, 9) is d, an arc radius of an inner edge of the metal layers (7, 9) in the corner area is r, and an arc radius of an outer edge of the metal layers (7, 9) in the corner area is R, wherein d=R-r, wherein the metal layers (7, 9) are sintered on the first glass substrate and the second glass substrate by a metal slurry, respectively. a first glass substrate; a second glass substrate disposed opposite to the first glass substrate; a sealing structure provided between the first glass substrate and the second glass substrate and adjacent to edges of the first glass substrate and the second glass substrate and used for airtight binding of the first glass substrate and the second glass substrate to form a vacuum cavity; and a support provided inside the vacuum cavity for bearing pressure from the first glass substrate and the second glass substrate, characterized in that the sealing structure being disposed adjacent to the edges of the first glass substrate and the second glass substrate and comprises: metal layers (7, 9) which are fixedly bound to opposite surfaces of the first glass substrate and the second glass substrate, respectively, and an intermediate solder layer which connects the two metal layers (7, 9); and the metal layers (7, 9) have arc-shaped transition structures at the corners areas of the glass substrates (6, 10), wherein a width of a straight segment of the metal layers (7, 9) is d, an arc radius of an inner edge of the metal layers (7, 9) in the corner area is r, and an arc radius of an outer edge of the metal layers (7, 9) in the corner area is R, wherein d=R-r, wherein the metal layers (7, 9) are sintered on the first glass substrate and the second glass substrate by a metal slurry, respectively.
A method for converting alerts in a video monitoring operation, the method comprising: triggering a candidate alert, in response to detecting, in a stream of thermal images of a scene, a stationary foreground object in the scene; evaluating an intensity of the detected stationary foreground object (220, 320, 420) in relation to a background intensity; and in response to the intensity of the detected stationary foreground object (220, 320, 420) being above the background intensity, converting the candidate alert to an actual alert; in response to the intensity of the detected stationary foreground object (220, 320, 420) being equal to or lower than the background intensity, calculating a measure of disorder in intensity in pixels pertaining to an area (216, 316, 416) of the scene comprising the detected stationary foreground object (220, 320, 420), the measure of disorder being indicative of the degree in which the detected stationary foreground object (220, 320, 420) is scattered; and in response to the measure of disorder being above a disorder threshold, converting the candidate alert to a discarded alert. triggering a candidate alert, in response to detecting, in a stream of thermal images of a scene, a stationary foreground object in the scene; evaluating an intensity of the detected stationary foreground object (220, 320, 420) in relation to a background intensity; and in response to the intensity of the detected stationary foreground object (220, 320, 420) being above the background intensity, converting the candidate alert to an actual alert; in response to the intensity of the detected stationary foreground object (220, 320, 420) being equal to or lower than the background intensity, calculating a measure of disorder in intensity in pixels pertaining to an area (216, 316, 416) of the scene comprising the detected stationary foreground object (220, 320, 420), the measure of disorder being indicative of the degree in which the detected stationary foreground object (220, 320, 420) is scattered; and in response to the measure of disorder being above a disorder threshold, converting the candidate alert to a discarded alert.
A method of transmitting speech signal, the method comprising: extracting low frequency feature information from an input speech signal by using a first feature extracting network, wherein the first feature extracting network comprises at least one first feature extracting module and at least one second feature extracting module arranged in a cascading manner, and wherein each of the at least one first feature extracting module and the at least one second feature extracting module performs a multiscale convolution operation based on at least two convolution processing parameters; and transmitting a speech signal corresponding to the low frequency feature information to a receiving end. extracting low frequency feature information from an input speech signal by using a first feature extracting network, wherein the first feature extracting network comprises at least one first feature extracting module and at least one second feature extracting module arranged in a cascading manner, and wherein each of the at least one first feature extracting module and the at least one second feature extracting module performs a multiscale convolution operation based on at least two convolution processing parameters; and transmitting a speech signal corresponding to the low frequency feature information to a receiving end.
Transcatheter device for the treatment of calcified native heart valve leaflets comprising an outer hollow shaft, an inner hollow shaft slidingly contained within said outer shaft and an axle body slidingly contained within said inner shaft; the device comprising a a commissure debridement system located at the distal end of the axle body, wherein the commissure debridement system is made of at least two radially expandable arms that are adapted to be inserted in and aligned with native commissures; said device furthermore comprising leaflet supports and leaflet debriders that are slidingly contained between said outer shaft and said inner shaft, said leaflet supports and said leaflet debriders being radially expandable and being adapted to be positioned on each side of the leaflets.
A crystal of (3'R,4'S,5'R)-N-[(3R,6S)-6-carbamoyltetrahydro-2H-pyran-3-yl]-6"-chloro-4'-(2-chloro-3-fluoropyridin-4-yl)-4,4-dimethyl-2"-oxo-1",2"-dihydrodispiro[cyclohexane-1,2'-pyrrolidine-3',3"-indole]-5'-carboxamide represented by the following formula or a salt thereof:
A method for commissioning and deploying an artificial intelligence, AI, based inspection system, comprising: (i) receiving, by a commissioning computer, sensor data captured by a sensor, the sensor positioned within a physical environment to capture sensor data pertaining to individual items in a sequence of similar items to be inspected, (ii) collecting, by the commissioning computer, a plurality of data samples, wherein collecting each data sample comprises providing an operator interface at the commissioning computer for a field operator to access sensor data pertaining to individual items and thereto assign classification labels associated to an inspection task, the collected data samples corresponding to a fixed setting of the sensor, (iii) training, by the commissioning computer, an AI algorithm using the collected data samples to configure the AI algorithm to predict the classification labels from input sensor data, (iv) testing, by the commissioning computer, the trained AI algorithm by feeding the trained AI algorithm with real-time sensor data captured by the sensor positioned within said physical environment with said fixed setting, wherein steps (ii) through (iv) are performed iteratively using different fixed settings of the sensor, to determine a final setting of the sensor for which a defined success criterion is achieved during the testing, and (v) deploying the iteratively trained and tested AI algorithm to a field device for execution, the field device being coupled to the sensor configured with the final setting to provide sensor data as input to the deployed AI algorithm. (i) receiving, by a commissioning computer, sensor data captured by a sensor, the sensor positioned within a physical environment to capture sensor data pertaining to individual items in a sequence of similar items to be inspected, (ii) collecting, by the commissioning computer, a plurality of data samples, wherein collecting each data sample comprises providing an operator interface at the commissioning computer for a field operator to access sensor data pertaining to individual items and thereto assign classification labels associated to an inspection task, the collected data samples corresponding to a fixed setting of the sensor, (iii) training, by the commissioning computer, an AI algorithm using the collected data samples to configure the AI algorithm to predict the classification labels from input sensor data, (iv) testing, by the commissioning computer, the trained AI algorithm by feeding the trained AI algorithm with real-time sensor data captured by the sensor positioned within said physical environment with said fixed setting, wherein steps (ii) through (iv) are performed iteratively using different fixed settings of the sensor, to determine a final setting of the sensor for which a defined success criterion is achieved during the testing, and (v) deploying the iteratively trained and tested AI algorithm to a field device for execution, the field device being coupled to the sensor configured with the final setting to provide sensor data as input to the deployed AI algorithm.
Light module for a headlight of a motor vehicle, the light module having a light-emitting unit and projection optics having an optical axis and at least one projection lens (14, 16) which images the light emitted by the light-emitting unit as a resulting light distribution of the light module on a roadway in front of the motor vehicle, characterized in that the light-emitting unit has a plurality of punctiform light sources (10a-10e) arranged in a matrix-like manner, each of which emits light with a Lambertian radiation characteristic, and a lens having a concavely curved exit surface on the side facing away from the light-emitting unit is arranged in a beam path between the light-emitting unit and the projection optics, the exit surface deflecting light beams (22a, 22b) which are emitted by the light-emitting unit with a beam angle of more than +/- 20° with respect to the optical axis of the projection optics and impinge on the exit surface of the lens toward the edge by means of total reflection, such that said light beams no longer pass through the projection optics.