mhurhangee/ep-ind-claims huggingface dataset:
A lighting device (100, 200, 400, 500) comprising: a first LED configured to emit a first light; a second LED configured to emit a third light; a first phosphor (115, 215, 415) disposed over the first LED and second LED and in contact with the first LED, the first phosphor (115, 215, 415) arranged to absorb a portion of the first light directly from the first LED and in response emit a second light of a longer wavelength than the first light; and a second phosphor (125, 225, 425) disposed over and in contact with the second LED, the second phosphor (125, 225, 425) arranged to absorb a portion of the third light directly from the second LED and in response emit a fourth light of a longer wavelength than the third light,, the fourth light exits the second phosphor (125, 225, 425) directly into the first phosphor (115, 215, 415), the first phosphor (115, 215, 415) forming a light emitting surface (140, 240, 440) opposite the first LED and the second LED and covering the first LED, second LED and second phosphor (125, 225, 425), and the second light, unabsorbed first light, and fourth light exit the lighting device (100, 200, 400, 500) through the light emitting surface characterized in that the portion of third light converted by the second phosphor (125, 225, 425) being more than 90% of the third light emitted from the second LED, the portion of third light absorbed by the second phosphor (125, 225, 425) is greater than the portion of first light absorbed by the first phosphor (115, 215, 415). a first LED configured to emit a first light; a second LED configured to emit a third light; a first phosphor (115, 215, 415) disposed over the first LED and second LED and in contact with the first LED, the first phosphor (115, 215, 415) arranged to absorb a portion of the first light directly from the first LED and in response emit a second light of a longer wavelength than the first light; and a second phosphor (125, 225, 425) disposed over and in contact with the second LED, the second phosphor (125, 225, 425) arranged to absorb a portion of the third light directly from the second LED and in response emit a fourth light of a longer wavelength than the third light,, the fourth light exits the second phosphor (125, 225, 425) directly into the first phosphor (115, 215, 415), the first phosphor (115, 215, 415) forming a light emitting surface (140, 240, 440) opposite the first LED and the second LED and covering the first LED, second LED and second phosphor (125, 225, 425), and the second light, unabsorbed first light, and fourth light exit the lighting device (100, 200, 400, 500) through the light emitting surface characterized in that the portion of third light converted by the second phosphor (125, 225, 425) being more than 90% of the third light emitted from the second LED, the portion of third light absorbed by the second phosphor (125, 225, 425) is greater than the portion of first light absorbed by the first phosphor (115, 215, 415).
A computer-implemented method comprising: receiving, by one or more computing devices, an initialization request for a still image capture mode; after receiving the request to initialize the still image capture mode, automatically beginning, by the one or more computing devices, to capture a plurality of image frames; after beginning to capture the plurality of image frames, receiving instructions to capture a still image of the scene; in response to receiving the instructions, stopping the capture of the plurality of image frames and capturing the still image; tracking, by the one or more computing devices, features between a first image frame of the plurality of image frames and each of the other image frames of the plurality of image frames; generating, by the one or more computing devices, a set of 3D points corresponding to the tracked features using a set of assumptions, the set of assumptions including a first assumption that there is no rotation between the plurality of image frames and a second assumption that there is no translation between the plurality of image frames; and generating a depth map of a scene, by the one or more computing devices, based at least in part on the set of 3D points. receiving, by one or more computing devices, an initialization request for a still image capture mode; after receiving the request to initialize the still image capture mode, automatically beginning, by the one or more computing devices, to capture a plurality of image frames; after beginning to capture the plurality of image frames, receiving instructions to capture a still image of the scene; in response to receiving the instructions, stopping the capture of the plurality of image frames and capturing the still image; tracking, by the one or more computing devices, features between a first image frame of the plurality of image frames and each of the other image frames of the plurality of image frames; generating, by the one or more computing devices, a set of 3D points corresponding to the tracked features using a set of assumptions, the set of assumptions including a first assumption that there is no rotation between the plurality of image frames and a second assumption that there is no translation between the plurality of image frames; and generating a depth map of a scene, by the one or more computing devices, based at least in part on the set of 3D points.
A multi-cell battery apparatus comprising: - a plurality of voltage-stacked battery cell circuits, each including - a battery cell (102a or 102b, 202a, 202b) having an upper voltage terminal and a lower voltage terminal, and - a switchable resistive-divider circuit, having an input node disposed between the upper voltage terminal and the lower voltage terminal, configured to output a controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal; and - a control circuit configured to selectively activate the switchable resistive-divider circuit and, in response to the respective switchable resistive-divider circuit being selectively activated, configured to measure the controlled-load voltage drop, characterized in that the switchable resistive-divider circuit includes a pair of resistive-dividers interconnected via a selectively activated switch and are cooperatively arranged to provide the controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal upon activation of the switchable resistive-divider circuit. - a plurality of voltage-stacked battery cell circuits, each including - a battery cell (102a or 102b, 202a, 202b) having an upper voltage terminal and a lower voltage terminal, and - a switchable resistive-divider circuit, having an input node disposed between the upper voltage terminal and the lower voltage terminal, configured to output a controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal; and - a control circuit configured to selectively activate the switchable resistive-divider circuit and, in response to the respective switchable resistive-divider circuit being selectively activated, configured to measure the controlled-load voltage drop,
Body of a vehicle with a roof antenna, the roof antenna having a base plate for receiving antenna elements (13, 14, 15, 16) which are covered by an antenna hood that can be connected to the base plate, wherein the roof antenna can be mounted on a roof, having a roof cutout, of the vehicle by means of connecting means, characterized in that the connecting means are formed as a clamping part that can be moved axially with respect to the base plate and rotatably with respect to the roof below the base plate of the roof antenna and the roof and are arranged below the roof after being mounted, wherein the clamping part has an outer contour, by way of which it can be guided through the cutout, and comes to bear against the roof with an overlap when it has been rotated through a defined amount, and the clamping part can be secured to the base plate in a movable manner by means of a screw.
A control device for a vehicle, the vehicle including an engine, driving wheels, and an automatic transmission, the automatic transmission being connected to the engine via an input shaft and being connected to the driving wheels via an output shaft, the automatic transmission being a stepped type automatic transmission and being configured to establish one shift stage of a plurality of shift stages by selectively engaging a plurality of frictional engagement elements with each other, the control device comprising an electronic control unit configured to: set a target torque phase time during a gear shift of the automatic transmission based on an output shaft torque difference, the output shaft torque difference being a difference between a torque of the output shaft before the gear shift and a torque of the output shaft after the gear shift; and perform torque phase control based on the set target torque phase time, the torque phase control being control to control torque capacities of a disengagement-side element and an engagement-side element, the plurality of frictional engagement elements including the disengagement-side element and the engagement-side element, the target torque phase time being a time in which the torque phase control is performed, wherein the control device for a vehicle is characterized in that the electronic control unit is configured to, when the electronic control unit determines that the gear shift of the automatic transmission is a driving downshift, set an upper limit of the target torque phase time based on an assigned torque which is taken charge of by the disengagement-side element and an input shaft rotation speed difference in the torque phase control, the input shaft rotation speed difference being a difference between a rotation speed of the input shaft before the gear shift and a rotation speed of the input shaft after the gear shift. set a target torque phase time during a gear shift of the automatic transmission based on an output shaft torque difference, the output shaft torque difference being a difference between a torque of the output shaft before the gear shift and a torque of the output shaft after the gear shift; and perform torque phase control based on the set target torque phase time, the torque phase control being control to control torque capacities of a disengagement-side element and an engagement-side element, the plurality of frictional engagement elements including the disengagement-side element and the engagement-side element, the target torque phase time being a time in which the torque phase control is performed, wherein
A base (10, 20) for flush-mounted installation in a wall, for facilitating, controlling, or measuring the provision of power to an electrical load, said base (10, 20) comprising an electrical function and being intended for being at least partially built-in in an opening in the wall, wherein said base (10, 20) comprises a rear base part with a rear side and a front side, and a front base part with a rear side and a front side; the front side of the rear base part being attached to a rear side of said front base part; wherein said rear base part is provided with first electronic circuitry connected to the electrical function; wherein said front base part is provided with second electronic circuitry which is connected to said first electronic circuitry; wherein the second electronic circuitry is arranged on a PCB, said PCB being arranged between the front base part and the rear base part; characterized in that the first electronic circuitry is arranged on a PCB, said PCB being attached to the rear side of the rear base part; and in that the electrical function comprises a relay arranged in a recess provided in the rear side of the rear base part.
A valve device, in particular for a cooling water system of a motor vehicle, comprising a housing, which has an inflow connection and a first outflow connection and a second outflow connection, comprising a valve, which is mounted in the housing so as to shift, wherein the valve has a cylindrical main part, at each end of which a valve element is arranged in order to close one of the connections (4, 5) in a first sliding end position of the valve and another of the connections (5, 4) in a second sliding end position of the valve, and comprising a first spring element, which biases the valve in the direction of the first sliding end position, as well as a thermally activatable actuator element, which is designed to push the valve against the force of the spring element in the direction of the second sliding end position upon being activated, wherein the first spring element and the actuator element formed as a second spring element are each axially tensioned between one of the valve elements and a bearing web protruding from the housing inward radially, wherein the bearing web is formed by a bearing ring inserted into the housing, wherein a bearing opening is formed in a cylindrical and from the bearing ring axially protruding bearing section of the bearing ring, and wherein the bearing section is formed as a guide section for at least one of the spring elements (28, 29) formed as helical springs, which are arranged coaxially with respect to the main part, characterized in that the housing consists of a housing element and a housing cover, that the housing element has a diameter increase on its side facing the housing cover, by means of which an axial stop is formed, up to which the bearing ring can be pushed into the housing element, and that an inner diameter of the housing cover on its side facing the housing element is less than the outer diameter of the bearing ring, such that the housing cover with the arrangement on the housing element likewise axially impacts the bearing ring.
A chassis collision structure of a new energy vehicle, wherein the chassis collision structure of a new energy vehicle comprises a front lower collision beam assembly, a front sub-frame assembly, a front battery pack bottom protective plate, a rear battery pack bottom protective plate, and a rear sub-frame assembly which are arranged sequentially along a direction from a head to a tail of the vehicle, wherein the front lower collision beam assembly is connected to a front end of the front sub-frame assembly; the front battery pack bottom protective plate is connected to a bottom of the front sub-frame assembly; the rear battery pack bottom protective plate is connected to a bottom of the rear sub-frame assembly; and connecting parts which are connected with a battery pack are arranged at one end of the front battery pack bottom protective plate and one end of the rear battery pack bottom protective plate, which are close to each other, respectively, characterized in that the rear battery pack bottom protective plate comprises a bottom protective plate body which consists of a top protective plate and a bottom protective plate which are buckled fixedly from top to bottom; a plurality of rear battery pack connecting parts are arranged on one side of the bottom protective plate body, and a plurality of rear sub-frame connecting parts which are connected with the rear sub-frame assembly are constructed on the other side of the bottom protective plate body with respect to the rear battery pack connecting parts; and the rear battery pack connecting parts and the rear sub-frame connecting parts are connecting holes which are formed in the bottom protective plate body.
A method for identifying a user on an exercise equipment, comprising: acquiring, by means of an electronic portable device of the user, an equipment identification code associated to a exercise equipment; sending, by means of the electronic portable device, the equipment identification code to an electronic calculator; sending, by means of the electronic portable device, a user identification code to the electronic calculator, said user identification code being an alphanumerical character string stored in a memory unit of the electronic portable device; sending, by means of the electronic calculator, on the basis of both the equipment identification code associated to the exercise equipment and the user identification code as received from the electronic portable device, user operative data of the user corresponding to the user identification code to the exercise equipment identified by the equipment identification code; said user operative data comprising a training program of the user corresponding to the user identification code, received from the electronic calculator, the method further comprising automatically setting up, by means of the exercise equipment, the training program, said the user operative data comprising training data of the user, the method comprising sending to the electronic calculator, by the exercise equipment, on the basis of the user identification code, partial training data of the user of the training program in execution by the user. acquiring, by means of an electronic portable device of the user, an equipment identification code associated to a exercise equipment; sending, by means of the electronic portable device, the equipment identification code to an electronic calculator; sending, by means of the electronic portable device, a user identification code to the electronic calculator, said user identification code being an alphanumerical character string stored in a memory unit of the electronic portable device; sending, by means of the electronic calculator, on the basis of both the equipment identification code associated to the exercise equipment and the user identification code as received from the electronic portable device, user operative data of the user corresponding to the user identification code to the exercise equipment identified by the equipment identification code; said user operative data comprising a training program of the user corresponding to the user identification code, received from the electronic calculator, the method further comprising automatically setting up, by means of the exercise equipment, the training program, said the user operative data comprising training data of the user, the method comprising sending to the electronic calculator, by the exercise equipment, on the basis of the user identification code, partial training data of the user of the training program in execution by the user.
A convertible mounting bracket capable of securement onto load carrier bars (200, 202) of different dimensions, the bracket comprising: an elongate first jaw body having a first end opposite a second end; the first jaw body having a load bar engaging surface; an elongate second jaw body having a first end opposite a second end; the second jaw body having at least two load bar engaging surfaces (121, 123) on opposite sides of the second jaw body; and a flip-connector coupled between the first ends (104, 112) of each of the first and second jaw bodies wherein the flip-connector being interconnected to the first end of the second jaw body by a pivot connection, the pivot connection accommodating approximately 180 degree pivotation of the second jaw body about the pivot connection between first and second orientations of the second jaw body; and wherein, in the first orientation of the second jaw body, a first of the at least two load bar engaging surfaces (121, 123) of the second jaw body is facing the load bar engaging surface of the first jaw body and in the second orientation of the second jaw body, a second of the at least two load bar engaging surfaces (121, 123) of the second jaw body is facing the load bar engaging surface of the first jaw body and thereby accommodating securement of the convertible mounting bracket onto load carrier bars (200, 202) of different dimensions. an elongate first jaw body having a first end opposite a second end; the first jaw body having a load bar engaging surface; an elongate second jaw body having a first end opposite a second end; the second jaw body having at least two load bar engaging surfaces (121, 123) on opposite sides of the second jaw body; and a flip-connector coupled between the first ends (104, 112) of each of the first and second jaw bodies wherein the flip-connector being interconnected to the first end of the second jaw body by a pivot connection, the pivot connection accommodating approximately 180 degree pivotation of the second jaw body about the pivot connection between first and second orientations of the second jaw body; and wherein, in the first orientation of the second jaw body, a first of the at least two load bar engaging surfaces (121, 123) of the second jaw body is facing the load bar engaging surface of the first jaw body and in the second orientation of the second jaw body, a second of the at least two load bar engaging surfaces (121, 123) of the second jaw body is facing the load bar engaging surface of the first jaw body and thereby accommodating securement of the convertible mounting bracket onto load carrier bars (200, 202) of different dimensions.
A filter system comprising a cylindrical filter element for filtering a liquid, a filter housing in which the filter element is arranged, and a filter head with connections (28, 29) which is connected to the filter housing, the filter element comprising an end plate and a filter material, characterized in that the filter system has a switch and/or a bypass valve with an anti-rotation lock, the end plate having a through opening for filtered liquid which is surrounded by a sealing ring for a connecting piece, and a cover for the filter material, the sealing ring delimiting a free space for accommodating the anti-rotation lock of the switch and/or the bypass valve of a filter system, the free space having a depth in the axial direction relative to the longitudinal extent of the sealing ring which corresponds at least to the immersion depth of the anti-rotation lock, and the sealing ring having an upper edge, the depth of the free space being at least 5 mm from the upper edge of the sealing ring, the free space forming an accommodating pocket which extends between the sealing ring and the cover and has a base, the cover having an inner ring and the accommodating pocket being formed between the sealing ring and the inner ring, and the filter head having the anti-rotation lock which is connected to the switch and/or the bypass valve, the filter head and the free space of the end plate forming an interface so that the anti-rotation lock can be moved into the free space or out of the free space when the switch and/or the bypass valve is actuated. the filter system has a switch and/or a bypass valve with an anti-rotation lock, the end plate having a through opening for filtered liquid which is surrounded by a sealing ring for a connecting piece, and a cover for the filter material, the sealing ring delimiting a free space for accommodating the anti-rotation lock of the switch and/or the bypass valve of a filter system, the free space having a depth in the axial direction relative to the longitudinal extent of the sealing ring which corresponds at least to the immersion depth of the anti-rotation lock, and the sealing ring having an upper edge, the depth of the free space being at least 5 mm from the upper edge of the sealing ring, the free space forming an accommodating pocket which extends between the sealing ring and the cover and has a base, the cover having an inner ring and the accommodating pocket being formed between the sealing ring and the inner ring, and the filter head having the anti-rotation lock which is connected to the switch and/or the bypass valve, the filter head and the free space of the end plate forming an interface so that the anti-rotation lock can be moved into the free space or out of the free space when the switch and/or the bypass valve is actuated.