mhurhangee/ep-ind-claims huggingface dataset:
A method for semantically annotating images in a plurality of images (200, 402, 406), each image in the plurality of images comprising at least one image region (408, 410), the method comprising: identifying at least two similar images including a first image and a second image; identifying corresponding image regions (408, 410) in the first image and the second image comprises identifying a first image region in the first image with a second image region in the second image; and assigning, using at least one processor, annotations to image regions (408, 410) in one or more images in the plurality of images (200, 402, 406) by using a metric of fit indicative of a degree of match between the assigned annotations and the corresponding image regions (408, 410), the assigning annotations to image regions (408, 410) comprises iteratively assigning (316, 318) annotations to image regions (408, 410) based on the metric of fit, wherein each iteration comprises assigning (316, 318) an annotation to the first image region based at least in part on an annotation assigned to the second image region, wherein the assigning (316, 318) the annotation to the first image region is further based on a spatial histogram of the annotation, wherein the spatial histogram of the annotation is computed across multiple images in the plurality of images (200, 402, 406), wherein the metric of fit depends on at least one annotation for each image in a subset of the plurality of images (200, 402, 406) and the identified correspondence between image regions (408, 410) in the first image and the second image. identifying at least two similar images including a first image and a second image; identifying corresponding image regions (408, 410) in the first image and the second image comprises identifying a first image region in the first image with a second image region in the second image; and assigning, using at least one processor, annotations to image regions (408, 410) in one or more images in the plurality of images (200, 402, 406) by using a metric of fit indicative of a degree of match between the assigned annotations and the corresponding image regions (408, 410), the assigning annotations to image regions (408, 410) comprises iteratively assigning (316, 318) annotations to image regions (408, 410) based on the metric of fit, wherein each iteration comprises assigning (316, 318) an annotation to the first image region based at least in part on an annotation assigned to the second image region, wherein the assigning (316, 318) the annotation to the first image region is further based on a spatial histogram of the annotation, wherein the spatial histogram of the annotation is computed across multiple images in the plurality of images (200, 402, 406), wherein the metric of fit depends on at least one annotation for each image in a subset of the plurality of images (200, 402, 406) and the identified correspondence between image regions (408, 410) in the first image and the second image.
A reactor, comprising: a main winding substrate (14A, 14B) provided with a main winding (12b, 12c), a control winding substrate provided with a control winding (13a, 13b) and a planar core (11, 11A, 11B), wherein the main winding substrate (14A, 14B) and the control winding substrate are incorporated in layers into the Planar core, the planar core has a center leg, a pair of inner legs (16b, 16c) arranged on both sides of the center leg, and a pair of outer legs (16d, 16e) arranged outside the inner legs (16b, 16c), in which a main winding current of high-frequency current flowing through the main winding (12b, 12c) generates an AC magnetic flux around each of the pair of inner legs (16b, 16c), the magnetic fluxes having a magnetic field in a direction opposite to each other so as to cancel each other out, a control current of a direct current flowing through the control winding (13a, 13b) generates a DC magnetic flux with a uniform magnetic flux density around all the legs of the planar core. a main winding substrate (14A, 14B) provided with a main winding (12b, 12c), a control winding substrate provided with a control winding (13a, 13b) and a planar core (11, 11A, 11B), wherein the main winding substrate (14A, 14B) and the control winding substrate are incorporated in layers into the Planar core, the planar core has a center leg, a pair of inner legs (16b, 16c) arranged on both sides of the center leg, and a pair of outer legs (16d, 16e) arranged outside the inner legs (16b, 16c), in which a main winding current of high-frequency current flowing through the main winding (12b, 12c) generates an AC magnetic flux around each of the pair of inner legs (16b, 16c), the magnetic fluxes having a magnetic field in a direction opposite to each other so as to cancel each other out, a control current of a direct current flowing through the control winding (13a, 13b) generates a DC magnetic flux with a uniform magnetic flux density around all the legs of the planar core.
An adjustable headgear (200,2200) for a respiratory mask comprising: a side strap comprising an elastic portion (2302,2438,4302), a non-elastic portion (2300,4220,4300) and a support beam (210,4444); the elastic portion having a longitudinal axis; the non-elastic portion being relatively inelastic compared to the elastic portion and having a longitudinal axis that is aligned with the longitudinal axis of the elastic portion, wherein the elastic portion is configured to provide a retraction force to the non-elastic portion in the direction of the elastic portion's longitudinal axis; a restriction mechanism configured to provide a force resisting movement of the non-elastic portion when the elastic portion is extended in a direction of its longitudinal axis; and the support beam being coupled to the non-elastic portion and extending along a portion of the headgear, wherein the support beam exhibits greater resistance to buckling in a direction perpendicular to the support beam's length than the non-elastic portion in a direction perpendicular to the non-elastic portion's longitudinal axis in use; and wherein (i) the resistance to buckling of the support beam is greater in a superior-inferior direction than in a medial-lateral direction in use; (ii) the elastic portion comprises a tube and the support beam is disposed within the tube; and (iii) the support beam comprises telescoping inner and outer members. a side strap comprising an elastic portion (2302,2438,4302), a non-elastic portion (2300,4220,4300) and a support beam (210,4444); the elastic portion having a longitudinal axis; the non-elastic portion being relatively inelastic compared to the elastic portion and having a longitudinal axis that is aligned with the longitudinal axis of the elastic portion, wherein the elastic portion is configured to provide a retraction force to the non-elastic portion in the direction of the elastic portion's longitudinal axis; a restriction mechanism configured to provide a force resisting movement of the non-elastic portion when the elastic portion is extended in a direction of its longitudinal axis; and the support beam being coupled to the non-elastic portion and extending along a portion of the headgear, wherein the support beam exhibits greater resistance to buckling in a direction perpendicular to the support beam's length than the non-elastic portion in a direction perpendicular to the non-elastic portion's longitudinal axis in use; and wherein (i) the resistance to buckling of the support beam is greater in a superior-inferior direction than in a medial-lateral direction in use; (ii) the elastic portion comprises a tube and the support beam is disposed within the tube; and (iii) the support beam comprises telescoping inner and outer members. (i) the resistance to buckling of the support beam is greater in a superior-inferior direction than in a medial-lateral direction in use; (ii) the elastic portion comprises a tube and the support beam is disposed within the tube; and (iii) the support beam comprises telescoping inner and outer members.
A compound of the Formula or a pharmaceutically-acceptable adduct thereof wherein: R 1 is hydrogen, C 1-3 alkyl or -CH 2 OMe; R 2 is pyridinyl, optionally substituted on 1 ring carbon atom by a substituent independently selected from the group consisting of C 1-3 alkyl, difluoromethyl and trifluoromethyl; or R 2 is pyrimidinyl, optionally substituted on 1 ring carbon atom by a substituent independently selected from the group consisting of C 1-3 alkyl, difluoromethyl and trifluoromethyl; or R 2 is phenyl optionally substituted on 1 or 2 ring carbon atoms by a substituent independently selected from the group consisting of halo, difluoromethyl, trifluoromethyl, methoxy and -OCHF 2; and R 3 is hydrogen, C 1-3 alkyl or chloro. R 1 is hydrogen, C 1-3 alkyl or -CH 2 OMe; R 2 is pyridinyl, optionally substituted on 1 ring carbon atom by a substituent independently selected from the group consisting of C 1-3 alkyl, difluoromethyl and trifluoromethyl; or R 2 is pyrimidinyl, optionally substituted on 1 ring carbon atom by a substituent independently selected from the group consisting of C 1-3 alkyl, difluoromethyl and trifluoromethyl; or R 2 is phenyl optionally substituted on 1 or 2 ring carbon atoms by a substituent independently selected from the group consisting of halo, difluoromethyl, trifluoromethyl, methoxy and -OCHF 2; and R 3 is hydrogen, C 1-3 alkyl or chloro.
A display apparatus comprising: a display unit which comprises a first panel and a second panel disposed adjacent to an outer area of the first panel; and a first panel driver configured to drive the first panel; a second panel driver configured to drive the second panel; and a controller configured to: based on an image and the first panel having a same aspect ratio, control the first panel driver to display the image in full on the first panel, and based on the image and the first panel having different aspect ratios, control the first panel driver to display a part of the image on the first panel and control the second panel driver to display the remainder of the image on the second panel wherein the sum of the aspect ratios of the part of the image on the first panel and the remainder of the image on the second panel corresponds to the aspect ratio of the image. a display unit which comprises a first panel and a second panel disposed adjacent to an outer area of the first panel; and a first panel driver configured to drive the first panel; a second panel driver configured to drive the second panel; and a controller configured to: based on an image and the first panel having a same aspect ratio, control the first panel driver to display the image in full on the first panel, and based on the image and the first panel having different aspect ratios, control the first panel driver to display a part of the image on the first panel and control the second panel driver to display the remainder of the image on the second panel wherein the sum of the aspect ratios of the part of the image on the first panel and the remainder of the image on the second panel corresponds to the aspect ratio of the image. based on an image and the first panel having a same aspect ratio, control the first panel driver to display the image in full on the first panel, and based on the image and the first panel having different aspect ratios, control the first panel driver to display a part of the image on the first panel and control the second panel driver to display the remainder of the image on the second panel
A coreless roll of tissue comprising a plurality of windings emanating from an axially-oriented central open area and terminating on the outside of the roll, wherein two or more consecutive windings closest to the central open area have registered perforations (5,6,7,8,9,10), characterized in that registered perforations (5,6,7,8,9,10) in the first two consecutive windings are positioned diametrically opposite each other in the roll, or wherein there are three registered perforations (5,6,7,8,9,10) in the first two consecutive windings which are equally spaced apart in the circumferential direction of the roll.
A portable, self-contained, fluid changing system with an electric pump and a reservoir adapted for providing fluid such as water or other suitable fluid for cleaning or changing a fluid such as oil or another suitable fluid in and from a container of a boat, recreational vehicle, automobile or other suitable military, agricultural or industrial device, comprising: the reservoir having an inlet port for receiving and holding the fluid that is being removed from the fluid container, the reservoir having a one-piece molded plastic construction with a recessed cavity, the electric pump having a pump inlet for receiving and coupling a pump discharge hose thereto adapted to transfer the fluid from the container to the pump, and also having a connecting device for coupling a pump outlet to the input port of the reservoir for transferring the fluid from the pump to the reservoir, characterized by the cavity having one or more molded-in inserts adapted for mounting the electric pump on the reservoir; and the electric pump being affixed to the reservoir, using a mounting arrangement the reservoir having an inlet port for receiving and holding the fluid that is being removed from the fluid container, the reservoir having a one-piece molded plastic construction with a recessed cavity, the electric pump having a pump inlet for receiving and coupling a pump discharge hose thereto adapted to transfer the fluid from the container to the pump, and also having a connecting device for coupling a pump outlet to the input port of the reservoir for transferring the fluid from the pump to the reservoir, characterized by the cavity having one or more molded-in inserts adapted for mounting the electric pump on the reservoir; and the electric pump being affixed to the reservoir, using a mounting arrangement
Method for locating a problem (50, 54, 56, 86) in a system, in which a mobile carrier having a camera (14, 28) records high-resolution images of the system, the high-resolution images are stored in the mobile carrier and image information obtained from the high-resolution images through compression to form low-resolution images is transmitted wirelessly to a ground-based server, characterized in that the problem (50, 54, 56, 86) is identified on the basis of the image information sent to the server, a signal is triggered by the identification and sent to the mobile carrier, where it triggers a high-resolution image of the problem (50, 54, 56, 86), stored in the mobile carrier, and geographical coordinates of the mobile carrier being sent to the server.
Motor vehicle comprising at least a battery module with a cooling device, whereby the cooling device comprises a pressure reservoir for compressed gas, which is supplied to the battery module for cooling, whereby the motor vehicle comprises a control device for controlling the supply of gas from the pressure reservoir to the battery module, depending on at least one output value from at least one sensor, characterized in that the sensor is designed to measure the current output of the battery module.
A method for pelletizing fine-grained ore particles, with the following steps: a) mixing the ore particles with water to which surface-active substances have been added, wherein that the amount of surface-active substances in the water is 0.2% to 2%, b) adding a binder and at least one aggregate for preparing a pelletizing mixture, c) supplying the pelletizing mixture to a pelletizing device, and d) processing the pelletizing mixture in the pelletizing device to obtain pellets by addition of water to which surface-active substances have been added, that the amount of surface-active substances in the water is 0.2% to 2%.%. a) mixing the ore particles with water to which surface-active substances have been added, wherein that the amount of surface-active substances in the water is 0.2% to 2%, b) adding a binder and at least one aggregate for preparing a pelletizing mixture, c) supplying the pelletizing mixture to a pelletizing device, and d) processing the pelletizing mixture in the pelletizing device to obtain pellets by addition of water to which surface-active substances have been added, that the amount of surface-active substances in the water is 0.2% to 2%.%.
A method, comprising: measuring, by a processor and via a monitor circuit coupled to a battery (100, 200), a first temperature of the battery at a first time; measuring, by the processor and via the monitor circuit, a first voltage of the battery at the first time; generating, by the processor, a first data point comprising the first voltage and the first temperature; assigning, by the processor, the first data point to a first cell of a plurality of cells in a matrix stored on a memory in communication with the processor, wherein the matrix comprises a first axis comprising a plurality of voltage ranges and a second axis comprising a plurality of temperature ranges, wherein each cell of the plurality of cells is associated with a particular temperature range and voltage range, wherein the first cell is associated with a first voltage range of the plurality of voltage ranges and a first temperature range of the plurality of temperature ranges, wherein the first voltage is within the first voltage range and the first temperature is within the first temperature range; incorporating, by the processor, a first real number associated with the first data point into a first counter comprised in the first cell; and producing, by the processor, a first value comprised in the first counter in response to incorporating the first real number into the first counter, wherein a current of the battery is not measured, and wherein the monitor circuit is embedded into or attached onto the battery. measuring, by a processor and via a monitor circuit coupled to a battery (100, 200), a first temperature of the battery at a first time; measuring, by the processor and via the monitor circuit, a first voltage of the battery at the first time; generating, by the processor, a first data point comprising the first voltage and the first temperature; assigning, by the processor, the first data point to a first cell of a plurality of cells in a matrix stored on a memory in communication with the processor, wherein the matrix comprises a first axis comprising a plurality of voltage ranges and a second axis comprising a plurality of temperature ranges, wherein each cell of the plurality of cells is associated with a particular temperature range and voltage range, wherein the first cell is associated with a first voltage range of the plurality of voltage ranges and a first temperature range of the plurality of temperature ranges, wherein the first voltage is within the first voltage range and the first temperature is within the first temperature range; incorporating, by the processor, a first real number associated with the first data point into a first counter comprised in the first cell; and producing, by the processor, a first value comprised in the first counter in response to incorporating the first real number into the first counter, wherein a current of the battery is not measured, and wherein the monitor circuit is embedded into or attached onto the battery.
An adaptive impedance matching wireless power transfer system comprising: a drive inductor configured to receive alternating current electric power from a power source at a fixed frequency; a high quality factor, high-Q, transmitter coil inductively coupled to the drive inductor; a high-Q receiver coil configured to be inductively coupled to the transmitter coil; and a load inductor inductively coupled to the receiver coil; a first impedance matching network that is i) operably coupled to the drive inductor and configured to selectively adjust the impedance between the drive inductor and the transmitter coil, or ii) is operably coupled to the load inductor and configured to selectively adjust the impedance between the load inductor and the receiver coil, wherein the first impedance matching network comprises a plurality of capacitors interconnected to form at least one switchable bank of capacitors, and a microcontroller operably connected to the at least one switchable bank of capacitors, wherein the microcontroller is configured and operable to receive a measured operating parameter of the adaptive impedance matching wireless power transfer system and to use the measured operating parameter to selectively adjust the impedance between the drive inductor and the transmitter coil or the impedance between the load inductor and the receiver coil. a drive inductor configured to receive alternating current electric power from a power source at a fixed frequency; a high quality factor, high-Q, transmitter coil inductively coupled to the drive inductor; a high-Q receiver coil configured to be inductively coupled to the transmitter coil; and a load inductor inductively coupled to the receiver coil; a first impedance matching network that is i) operably coupled to the drive inductor and configured to selectively adjust the impedance between the drive inductor and the transmitter coil, or ii) is operably coupled to the load inductor and configured to selectively adjust the impedance between the load inductor and the receiver coil, wherein the first impedance matching network comprises a plurality of capacitors interconnected to form at least one switchable bank of capacitors, and a microcontroller operably connected to the at least one switchable bank of capacitors, wherein the microcontroller is configured and operable to receive a measured operating parameter of the adaptive impedance matching wireless power transfer system and to use the measured operating parameter to selectively adjust the impedance between the drive inductor and the transmitter coil or the impedance between the load inductor and the receiver coil.
Vehicle seat having an adjusting device for adjusting a relative position between a first component and a second component of the vehicle seat, wherein the adjusting device has a securing device for blocking the adjusting device by means of a frictional engagement between a braking ring and braking elements of the adjusting device, wherein the braking ring is connected directly to the first component or directly to the second component, wherein the braking ring has a pot-shaped basic form, which has a hole in the middle, as a result of which the braking ring has an open form, wherein the braking elements in the form of rollers lie against the braking ring on the outside and against a component of the adjusting device that is connected to a pinion for conjoint rotation therewith on the inside as seen in the radial direction, and the braking ring is welded and/or adhesively bonded directly to the first component or to the second component, wherein a diameter of the hole is considerably larger than a diameter of a circular-cylindrical base of the pinion, wherein there is a peripheral gap between an outer contour of the base and a border of the hole.