mhurhangee/ep-ind-claims huggingface dataset:
Electronic device comprising electronic components and a first printed circuit board, called the motherboard, itself having a first side, called the component side, on which some of the electronic components are located, some of the electronic components being superposed on the component side of the motherboard so that at least one electronic component, called the intermediate component, is located directly between, on the one hand, the motherboard, and, on the other hand, another electronic component, called the superposed component; characterized in that the motherboard, on the opposite side to the first side, has a back side, on which solder joints to electronic component connection pins are located.
A developing device (400,400A, 400B) for developing an electrostatic latent image with developer supplied from a container, the developing device (400,400A, 400B) comprising: a housing including a connection surface to which the container connects, the connection surface being provided with a feed port for feeding the developer; and a shutter mechanism configured to selectively open and close the feed port, wherein the shutter mechanism includes a shutter piece (451, 451A), movable between a closing position for closing the feed port and an opening position for opening the feed port, and a squeezing mechanism (460, 460A), which, protruding from the shutter piece (451, 451A) situated in the closing position, is configured to squeeze the developer into the housing through the feed port, characterized in that the squeezing mechanism (460, 460A) includes a protrusion configured to protrude from the shutter piece (451, 451A), and a limiting piece configured to limit separation of the shutter piece (451, 451A) from the connection surface, the limiting piece includes a first piece configured to guide movement of the shutter piece (451, 451A) from the opening position to the closing position, and a second piece distant from the connection surface by a smaller distance than a distance between the first piece and the connection surface, and when the shutter piece (451, 451A) is situated in the closing position, the second piece is configured to press the shutter piece (451, 451A) against the connection surface to push the protrusion into the feed port. a housing including a connection surface to which the container connects, the connection surface being provided with a feed port for feeding the developer; and a shutter mechanism configured to selectively open and close the feed port, wherein
Device for examining an eye, particularly a human eye, comprising: - an optical unit that is designed to generate a current image of a current intermediate image, wherein the optical unit comprises an objective, - an additional lens that is designed to be arranged between said objective and an eye along an optical axis of the optical unit in order to generate said current intermediate image, particularly of a posterior structure of said eye, - wherein said additional lens is designed to be movable relative to said optical unit, particularly so as to generate a sharp and reflection-free current image of said posterior structure with help of said optical unit and said additional lens, and - wherein the device comprises a first actuator means that is designed to move the additional lens, characterized in that the device is designed to control said first actuator means depending on the current image. - an optical unit that is designed to generate a current image of a current intermediate image, wherein the optical unit comprises an objective, - an additional lens that is designed to be arranged between said objective and an eye along an optical axis of the optical unit in order to generate said current intermediate image, particularly of a posterior structure of said eye, - wherein said additional lens is designed to be movable relative to said optical unit, particularly so as to generate a sharp and reflection-free current image of said posterior structure with help of said optical unit and said additional lens, and - wherein the device comprises a first actuator means that is designed to move the additional lens,
A main mixer, comprising: a swirler along an axis; and a swirler hub along the axis, the swirler hub having a fuel manifold and a centerbody, the centerbody forms an inner diameter of an annular mixer passage, and an inner diameter of the swirler forms an outer diameter of the annular mixer passage; characterised in that the centerbody is generally frustro-conical in shape, and an inner surface of the centerbody is coated with a thermal barrier coating. a swirler along an axis; and a swirler hub along the axis, the swirler hub having a fuel manifold and a centerbody, the centerbody forms an inner diameter of an annular mixer passage, and an inner diameter of the swirler forms an outer diameter of the annular mixer passage; characterised in that the centerbody is generally frustro-conical in shape, and an inner surface of the centerbody is coated with a thermal barrier coating.
Plastic tank comprising a tank wall made of plastic and at least one elongate reinforcing profile for minimizing unwanted deformation of the plastic tank, wherein the reinforcing profile is arranged on an outer side of the plastic tank, wherein the material of the tank wall engages around the reinforcing profile, at least in some region or regions, with the result that there is positive retention between the tank wall and the reinforcing profile, wherein a retaining geometry is formed at least in the vicinity of one axial end of the reinforcing profile, characterized in that the retaining geometry is of wider design, in a plan view of the tank wall of the plastic tank, than other axial portions of the reinforcing profile, wherein the retaining geometry has openings, wherein the material of the tank wall extends through the openings of the retaining geometry and onto the rear side of the reinforcing profile facing away from the tank wall, with the result that there is positive retention between the tank wall and the reinforcing profile at the retaining geometry in the region of the openings wherein the openings of the retaining geometry comprise a plurality of slotted holes, arranged adjacent to one another and/or among one another.
Roll stand, comprising: a drive-side roll stand housing and an operating-side roll stand housing, wherein the drive-side roll stand housing and the operating-side roll stand housing are arranged at a spacing from one another by a rolling line extending through the roll stand, an upper working roll and a lower working roll rotatably mounted at the roll stand housings (16, 17) in chocks; and upper support rails (55, 56), which are mounted on the drive-side roll stand housing at the inlet side and outlet side, for supporting the upper work roll during a roll change, wherein the support rails extend transversely to the rolling line; characterised in that the upper support rails (55, 56) are constructed to be displaceable between a moved-in operating state, in which the upper support rails (55, 56) do not project into the rolling line, and a moved-out operating state, in which the upper support rails (55, 56) project from the drive-side roll stand housing into the rolling line, preferably up to or beyond the longitudinal centre line of the rolling line.
A display system for a vehicle for displaying first images captured by at least one image sensor to a driver of the vehicle, the display system comprising: a first display screen (14, 14a) configured to emit the first images in a first emission direction; a mirror apparatus (25, 25a) configured to reflect the first images from the first display screen (14, 14a) towards a viewing direction; and a first lens apparatus (18, 18a) configured to receive the first images from the mirror apparatus (25, 25a), wherein the first lens apparatus (18, 18a): is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus (18, 18a); and a rearview assembly housing containing the first display screen (14, 14a), the mirror apparatus (25, 25a), and the first lens apparatus (18, 18a) disposed therein, wherein: the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus (18, 18a) is about 500 mm. a first display screen (14, 14a) configured to emit the first images in a first emission direction; a mirror apparatus (25, 25a) configured to reflect the first images from the first display screen (14, 14a) towards a viewing direction; and a first lens apparatus (18, 18a) configured to receive the first images from the mirror apparatus (25, 25a), wherein the first lens apparatus (18, 18a): is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus (18, 18a); and is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus (18, 18a); and a rearview assembly housing containing the first display screen (14, 14a), the mirror apparatus (25, 25a), and the first lens apparatus (18, 18a) disposed therein, wherein: the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus (18, 18a) is about 500 mm. the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus (18, 18a) is about 500 mm.
A method comprising: receiving a global trigger with a first millimeter-wave radar; receiving the global trigger with a second millimeter-wave radar; generating a first internal trigger of the first millimeter-wave radar after a first offset duration from the global trigger; generating a second internal trigger of the second millimeter-wave radar after a second offset duration from the global trigger; start transmitting first millimeter-wave radar signals with the first millimeter-wave radar based on the first internal trigger; and start transmitting second millimeter-wave radar signals with the second millimeter-wave radar based on the second internal trigger, wherein the second offset duration is different from the first offset duration, and wherein the first and second millimeter-wave radar signals are transmitted sequentially so as to exhibit no temporal overlap. receiving a global trigger with a first millimeter-wave radar; receiving the global trigger with a second millimeter-wave radar; generating a first internal trigger of the first millimeter-wave radar after a first offset duration from the global trigger; generating a second internal trigger of the second millimeter-wave radar after a second offset duration from the global trigger; start transmitting first millimeter-wave radar signals with the first millimeter-wave radar based on the first internal trigger; and start transmitting second millimeter-wave radar signals with the second millimeter-wave radar based on the second internal trigger, wherein the second offset duration is different from the first offset duration, and wherein the first and second millimeter-wave radar signals are transmitted sequentially so as to exhibit no temporal overlap.
A radio receiver comprising: an antenna configured to receive a signal; a first mixer coupled to the antenna and configured to output a first mixer output signal based on the signal received by the antenna; a buffer having a buffer input coupled to an output of the first mixer and configured to output at a buffer output a buffer signal based on the first mixer output signal; and a first charge pump coupled to the buffer output and configured to produce a first charge pump output signal based on the buffer signal. an antenna configured to receive a signal; a first mixer coupled to the antenna and configured to output a first mixer output signal based on the signal received by the antenna; a buffer having a buffer input coupled to an output of the first mixer and configured to output at a buffer output a buffer signal based on the first mixer output signal; and a first charge pump coupled to the buffer output and configured to produce a first charge pump output signal based on the buffer signal.
A light having a light housing and an at least partially transparent cover that is connected with side walls of the light housing so as to close the housing, with the cover comprising two or more hooks which interact with locking elements on the housing, with the housing-mounted locking elements each comprising a spring element which extends out of the side wall of the housing and towards the housing interior and interacts with one of the hooks so as to hold the cover to the housing, wherein the housing-mounted locking element can be mounted from the inside of the housing in an opening in the side wall.
A pixel unit cell comprising: four photodiode regions comprising an infrared light, IR, photodiode region and three visible light photodiode regions (R, G, B) arranged in a 2x2 matrix; an IR capacitance region associated with the IR photodiode region; an IR transfer gate (Q2 Z) coupled between the IR photodiode region and the IR capacitance region; a single visible light capacitance region associated with the three visible light photodiode regions (R, G, B); and for each of the three visible light photodiode regions (R, G, B), a respective visible light transistor gate (Q2 R, Q2 G, Q2 B) coupled between the visible light photodiode region and the single visible light capacitive region, wherein the single visible light capacitance region is positioned at a shared corner of the three visible light photodiode regions (R, G, B), and the IR capacitance region is positioned at a corner of the IR photodiode region that is not the shared corner of the three visible light photodiode regions. four photodiode regions comprising an infrared light, IR, photodiode region and three visible light photodiode regions (R, G, B) arranged in a 2x2 matrix; an IR capacitance region associated with the IR photodiode region; an IR transfer gate (Q2 Z) coupled between the IR photodiode region and the IR capacitance region; a single visible light capacitance region associated with the three visible light photodiode regions (R, G, B); and for each of the three visible light photodiode regions (R, G, B), a respective visible light transistor gate (Q2 R, Q2 G, Q2 B) coupled between the visible light photodiode region and the single visible light capacitive region, wherein the single visible light capacitance region is positioned at a shared corner of the three visible light photodiode regions (R, G, B), and the IR capacitance region is positioned at a corner of the IR photodiode region that is not the shared corner of the three visible light photodiode regions.
Voltage controller of a generator for controlling the output voltage of the generator comprising • a first control unit, and • a second control unit independent of the first control unit, • wherein the first control unit is designed to lower an output voltage of the generator when a first maximum value is exceeded, and • wherein the second control unit is designed to lower the output voltage either when the first maximum value is exceeded or when a second maximum value different from the first maximum value is exceeded, characterized in that, in a normal state in which the first control unit is operative, the second control unit is adapted to lower the output voltage when a second maximum value is exceeded and wherein, in the case of a fault at the first control unit, the second control unit is furthermore adapted to lower the output voltage when the first maximum value is exceeded, wherein the second maximum value is above the first maximum value. • a first control unit, and • a second control unit independent of the first control unit, • wherein the first control unit is designed to lower an output voltage of the generator when a first maximum value is exceeded, and • wherein the second control unit is designed to lower the output voltage either when the first maximum value is exceeded or when a second maximum value different from the first maximum value is exceeded,
Vulcanizing mould for moulding and vulcanizing a tyre, the said mould comprising a moulding surface extending circumferentially, the said moulding surface comprising two end strips of patterns (b'1, b'5) arranged respectively close to two edges (19, 21) of the moulding surface and at least one intermediate strip of patterns (b'2, b'3, b'4) positioned between the two end strips of patterns, and for at least one of the end strips, all the patterns of the said strip are derived from one and the same basic pattern, the said end strip (b'1, b'5) comprising at least three types of pattern and the patterns belonging to one and the same pattern type have the same width which differs from the width of the patterns belonging to the other pattern types of the strip, the patterns being arranged in the end strip as a function of their width in a predefined sequence, the sum of the widths of the patterns belonging to the end strip corresponding to the circumference of the moulding surface, the patterns of the end strip belonging to mould segments intended to be assembled to form the moulding surface, characterized in that the said end strip comprises patterns (M1, M2) belonging to a first pattern type and the patterns of the first pattern type have a width which is less than the width of the patterns belonging to the other pattern types of the end strip, and in that the patterns (M1, M2) of the first pattern type are grouped at least in twos on first segments of the mould (Sl) and in that the patterns (M3, M4) of the end strip not belonging to the first pattern type belong to second segments (S2, S3), each second segment comprising just one pattern of the said end strip.
A tablet pharmaceutical composition comprising: 30-32 percent by weight of Compound I, malate salt; 38-40 percent by weight of microcrystalline cellulose; 18-22 percent by weight of lactose; 2-4 percent by weight of hydroxypropyl cellulose; 4-8 percent by weight of croscarmellose sodium; 0.2-0.6 percent by weight of colloidal silicon dioxide; and 0.5-1 percent by weight of magnesium stearate; wherein Compound I is: 30-32 percent by weight of Compound I, malate salt; 38-40 percent by weight of microcrystalline cellulose; 18-22 percent by weight of lactose; 2-4 percent by weight of hydroxypropyl cellulose; 4-8 percent by weight of croscarmellose sodium; 0.2-0.6 percent by weight of colloidal silicon dioxide; and 0.5-1 percent by weight of magnesium stearate;
A method for generating a bitstream including encoded video data for a picture, the picture including a plurality of blocks and being partitioned into a plurality of picture partitions, wherein each picture partition is associated with a non-overlapping subset of the blocks such that each block is associated with exactly one of the picture partitions, and wherein each picture partition of the plurality of picture partitions is byte aligned such that the first bit of an encoded picture partition is the first bit of an addressable byte and the last bit of the encoded picture partition is the last bit of an addressable byte, the method comprising: generating a coded Network Abstraction Layer, NAL, unit that includes data for one or more encoded picture partitions; generating a series of offset syntax elements, each offset syntax element indicating the first bit of a respective one of the one or more encoded picture partitions in the NAL unit; entropy encoding a first syntax element, wherein the first syntax element indicates the number of bits of the each of the offset syntax elements; entropy encoding a second syntax element, wherein the second syntax element indicates the number of offset syntax elements generated for the NAL unit; generating a bitstream that includes a variable-length value that represents the entropy-encoded first syntax element, a variable-length value that represents the entropy-encoded second syntax element, fixed-length values that represent each of the offset syntax elements, and the coded NAL unit. generating a coded Network Abstraction Layer, NAL, unit that includes data for one or more encoded picture partitions; generating a series of offset syntax elements, each offset syntax element indicating the first bit of a respective one of the one or more encoded picture partitions in the NAL unit; entropy encoding a first syntax element, wherein the first syntax element indicates the number of bits of the each of the offset syntax elements; entropy encoding a second syntax element, wherein the second syntax element indicates the number of offset syntax elements generated for the NAL unit; generating a bitstream that includes a variable-length value that represents the entropy-encoded first syntax element, a variable-length value that represents the entropy-encoded second syntax element, fixed-length values that represent each of the offset syntax elements, and the coded NAL unit.
A system, comprising: a processor for executing computer-executable components stored in a computer-readable memory to facilitate correction of intra-scan focal spot displacement of a medical scanner, the computer-executable components comprising: a receiver component for accessing a first gantry angle of the medical scanner; a displacement component for determining a first displacement of a focal-spot of the medical scanner based on the first gantry angle, by referencing a mapping that correlates gantry angles to focal-spot displacements, wherein the mapping indicates displacement of the focal-spot due to Earth's magnetic field at the first gantry angle; and an execution component for compensating, via one or more focal-spot position adjusters, based on one or more electromagnets, of the medical scanner, for the first displacement. a receiver component for accessing a first gantry angle of the medical scanner; a displacement component for determining a first displacement of a focal-spot of the medical scanner based on the first gantry angle, by referencing a mapping that correlates gantry angles to focal-spot displacements, wherein the mapping indicates displacement of the focal-spot due to Earth's magnetic field at the first gantry angle; and an execution component for compensating, via one or more focal-spot position adjusters, based on one or more electromagnets, of the medical scanner, for the first displacement.