mhurhangee/ep-ind-claims huggingface dataset:
A mobile apparatus, comprising: a first bandwidth measurement unit configured to measure radio conditions of a serving cell and a neighbor cell in a first bandwidth; a second bandwidth measurement unit configured to measure the radio conditions of the serving cell and the neighbor cell in a second bandwidth greater than the first bandwidth; a control unit configured to selectively activate the first bandwidth measurement unit and the second bandwidth measurement unit; and a cell transition unit configured to perform cell transition from the serving cell to the neighbor cell, if the radio conditions of the serving cell and the neighbor cell measured by the first bandwidth measurement unit and the second bandwidth measurement unit meet predefined cell transition determination criteria, characterized in that the control unit is configured to switch between the first bandwidth measurement unit and the second bandwidth measurement unit at a first switch frequency. a first bandwidth measurement unit configured to measure radio conditions of a serving cell and a neighbor cell in a first bandwidth; a second bandwidth measurement unit configured to measure the radio conditions of the serving cell and the neighbor cell in a second bandwidth greater than the first bandwidth; a control unit configured to selectively activate the first bandwidth measurement unit and the second bandwidth measurement unit; and a cell transition unit configured to perform cell transition from the serving cell to the neighbor cell, if the radio conditions of the serving cell and the neighbor cell measured by the first bandwidth measurement unit and the second bandwidth measurement unit meet predefined cell transition determination criteria, characterized in that the control unit is configured to switch between the first bandwidth measurement unit and the second bandwidth measurement unit at a first switch frequency.
A flue pipe section for a gas appliance comprising a pipe body with two opposite ends open, and an electrical conductor for transmitting electrical current therein; characterized in that, the flue pipe section comprises a microchip disposed on the pipe body, and the microchip correlates with characteristic information of the flue pipe section, and the microchip is connected with said electrical conductor.
A MEMS ohmic switch, comprising: a substrate having one or more anchor electrodes, a plurality of pull-down electrodes (104A-104C) and one or more RF electrodes (302, 304) disposed thereon; a MEMS bridge coupled to the one or more anchor electrodes with an anchor contact layer; a dielectric layer disposed over the plurality of pull-down electrodes (104A-104C); a center stopper coupled to the dielectric layer and disposed under a substantially center of the MEMS bridge, characterised in that it further comprises: a first RF contact and a second RF contact are both coupled to a respective RF electrode of the one or more RF electrodes (302, 304); and an additional stopper disposed on the dielectric layer, wherein the additional stopper is disposed between the anchor contact layer and the first RF contact and wherein the first RF contact is disposed between the additional stopper and the center stopper, and the first RF contact and the second RF contact are disposed on the one or more RF electrodes (302, 304). a substrate having one or more anchor electrodes, a plurality of pull-down electrodes (104A-104C) and one or more RF electrodes (302, 304) disposed thereon; a MEMS bridge coupled to the one or more anchor electrodes with an anchor contact layer; a dielectric layer disposed over the plurality of pull-down electrodes (104A-104C); a center stopper coupled to the dielectric layer and disposed under a substantially center of the MEMS bridge, characterised in that it further comprises: a first RF contact and a second RF contact are both coupled to a respective RF electrode of the one or more RF electrodes (302, 304); and an additional stopper disposed on the dielectric layer, wherein the additional stopper is disposed between the anchor contact layer and the first RF contact and wherein the first RF contact is disposed between the additional stopper and the center stopper, and the first RF contact and the second RF contact are disposed on the one or more RF electrodes (302, 304). a first RF contact and a second RF contact are both coupled to a respective RF electrode of the one or more RF electrodes (302, 304); and an additional stopper disposed on the dielectric layer, wherein the additional stopper is disposed between the anchor contact layer and the first RF contact and wherein the first RF contact is disposed between the additional stopper and the center stopper, and the first RF contact and the second RF contact are disposed on the one or more RF electrodes (302, 304).
A method for welding a polyolefin plastics material to a second plastics material using a primer, wherein the primer contains at least one polymer that contains maleic acid anhydride, and at least one polyester.
A grating image (20,30,40) having a plurality of adjacent grating fields (22, 22-A, 22-B, 22-C, G i) having a diffuse, viewing-angle-dependent visual appearance, in which - to each grating field (22, 22-A, 22-B, 22-C, G i) is allocated a grating pattern (50, 54, M i) composed of a plurality of straight grating lines (52, 56), - each allocated grating pattern (50, 54, M i) has a preferred direction that establishes a viewing angle from which the respective grating pattern (50, 54, M i) is visually perceptible, - each grating field (22, 22-A, 22-B, 22-C, G i) is filled predominantly with the grating pattern (50, 54, M i) allocated to it, and - each grating field (22, 22-A, 22-B, 22-C, G i) is additionally partially filled with adjacent grating patterns that are allocated to adjacent grating fields, - the local areal coverage (F ij) of each grating field (22, 22-A, 22-B, 22-C, G i) with the grating pattern (50, 54, M i) allocated to it, called local areal self coverage, increasing from the edge of the grating field (22, 22-A, 22-B, 22-C, G i) inward, and the local areal coverage (F ij) with adjacent grating patterns for each grating field (22, 22-A, 22-B, 22-C, G i) decreasing from the edge of the grating field (22, 22-A, 22-B, 22-C, G i) inward. - to each grating field (22, 22-A, 22-B, 22-C, G i) is allocated a grating pattern (50, 54, M i) composed of a plurality of straight grating lines (52, 56), - each allocated grating pattern (50, 54, M i) has a preferred direction that establishes a viewing angle from which the respective grating pattern (50, 54, M i) is visually perceptible, - each grating field (22, 22-A, 22-B, 22-C, G i) is filled predominantly with the grating pattern (50, 54, M i) allocated to it, and - each grating field (22, 22-A, 22-B, 22-C, G i) is additionally partially filled with adjacent grating patterns that are allocated to adjacent grating fields, - the local areal coverage (F ij) of each grating field (22, 22-A, 22-B, 22-C, G i) with the grating pattern (50, 54, M i) allocated to it, called local areal self coverage, increasing from the edge of the grating field (22, 22-A, 22-B, 22-C, G i) inward, and the local areal coverage (F ij) with adjacent grating patterns for each grating field (22, 22-A, 22-B, 22-C, G i) decreasing from the edge of the grating field (22, 22-A, 22-B, 22-C, G i) inward.
Hob device with at least one hob plate (12a-c), with a hob unit (22a-b) which comprises an electronic hob (38a-b) and the hob plate (12a-c), and with at least one integrated extractor unit (14a-c), which has at least one fan unit (16a-c) which generates at least one first air flow (18a-c) in at least one operating mode and transports vapours produced in the operating mode away by means of the first air flow (18a-c), wherein the fan unit (16a-c) in the operating mode generates at least one second air flow (20a-c) and is provided to at least partially cool at least the hob unit (22a-c) by means of the second air flow (20a-c), wherein the extractor unit (14a-c) has at least one air duct unit (24a-c), which, in an installed position, at least essentially connects the fan unit (16a-c) and a top side of the hob plate (12a-c) to one another and through which, in the operating mode, at least the first air flow (18a-c) flows, characterised in that the air duct unit (24a-c) has at least one cooling fin (26a-c) which is provided to cool the hob unit (22a-c).
A crystalline Form B of compound 1 of formula: wherein the crystalline Form B is characterized by having four or more peaks in its XRPD pattern selected from those in the following table: Angle 2-Theta ° 13.94 14.52 16.27 16.60 17.62 18.76 19.02 19.29 19.64 22.32 22.77 23.02 23.16.
A scroll compressor in which a paired fixed scroll and rotating scroll each having a spiral wrap (18B,19B) provided upright on an end plate (18A,19A) are engaged to form a compression chamber and in which a discharge port for discharging fluid compressed in the compression chamber is provided at the central portion of the fixed scroll, characterised in that the discharge port has a deformed elongated hole shape having circular holes (25A,25B) at both ends, and the circular holes (25A,25B) at both ends are connected by two surfaces (25C,25D) the width between which is smaller than the hole diameters of the circular holes (25A,25B).
A robotic apparatus for investigating a confined area, said robotic apparatus comprising: an articulated robot for insertion into a confined area, the robotic apparatus further comprising a robot control system for controlling said articulated robot, said robot control system comprising a control unit, a robot driving means, a seal for isolating the confined area from the external environment and a plurality of transmission members, wherein said control unit is configured to send control signals to said robot driving means, wherein said plurality of transmission members extend from said robot driving means to connect to said articulated robot, characterised in that each transmission member within said plurality of transmission members extends through a separate aperture in said seal.. an articulated robot for insertion into a confined area, the robotic apparatus further comprising a robot control system for controlling said articulated robot, said robot control system comprising a control unit, a robot driving means, a seal for isolating the confined area from the external environment and a plurality of transmission members, wherein said control unit is configured to send control signals to said robot driving means, the robotic apparatus further comprising a robot control system for controlling said articulated robot, said robot control system comprising a control unit, a robot driving means, a seal for isolating the confined area from the external environment and a plurality of transmission members, wherein said control unit is configured to send control signals to said robot driving means, wherein said plurality of transmission members extend from said robot driving means to connect to said articulated robot, characterised in that each transmission member within said plurality of transmission members extends through a separate aperture in said seal..
A method in a multicarrier communication system, the multicarrier communication system including a first and second transceiver (100, 200) and the method comprising: transmitting from the first transceiver to the second transceiver a message indicating an impulse noise protection value; determining by the second transceiver based on the impulse noise protection value the number of consecutive DMT symbols to be repeated, wherein the number of DMT symbols to be repeated is computed as M=A*INP+B, where A and B are integers and INP is the impulse noise protection value, the impulse noise protection value being defined as the number of consecutive DMT symbols that, when completely corrupted by impulse noise, can be corrected by the receiver using FEC during data transmission mode transmitting from the second transceiver to the first transceiver a message comprising information that indicates the number of repeated DMT symbols; and transmitting from the first transceiver to the second transceiver an initialization message, wherein the first transceiver modulates at least one message bit onto repeated DMT symbols, wherein the number of repeated DMT symbols is as indicated in the message transmitted from the second transceiver to first transceiver. transmitting from the first transceiver to the second transceiver a message indicating an impulse noise protection value; determining by the second transceiver based on the impulse noise protection value the number of consecutive DMT symbols to be repeated, wherein the number of DMT symbols to be repeated is computed as M=A*INP+B, where A and B are integers and INP is the impulse noise protection value, the impulse noise protection value being defined as the number of consecutive DMT symbols that, when completely corrupted by impulse noise, can be corrected by the receiver using FEC during data transmission mode transmitting from the second transceiver to the first transceiver a message comprising information that indicates the number of repeated DMT symbols; and transmitting from the first transceiver to the second transceiver an initialization message, wherein the first transceiver modulates at least one message bit onto repeated DMT symbols, wherein the number of repeated DMT symbols is as indicated in the message transmitted from the second transceiver to first transceiver.
An additive manufacturing system, the system comprising: a thermal camera to measure the temperature of at least one build material delivery element in the system; and a controller to: receive, from the thermal camera, temperature information associated with one or more temperature measurements of the at least one build material delivery element; and process the received temperature information to detect insufficient delivery of build material via the at least one build material delivery element. a thermal camera to measure the temperature of at least one build material delivery element in the system; and a controller to: receive, from the thermal camera, temperature information associated with one or more temperature measurements of the at least one build material delivery element; and process the received temperature information to detect insufficient delivery of build material via the at least one build material delivery element. receive, from the thermal camera, temperature information associated with one or more temperature measurements of the at least one build material delivery element; and process the received temperature information to detect insufficient delivery of build material via the at least one build material delivery element.
An imaging apparatus using correlation calculation, comprising: a light source structured to generate a light beam having a uniform intensity distribution; a patterning device structured to modulate the intensity distribution of the light beam according to two-gradation first image data; a photodetector structured to receive reflected light from an object; a controller structured to generate second image data, and structured to convert the second image data so as to generate the first image data, a processing device structured to perform calculation of a correlation between a detection intensity based on an output of the photodetector and the m-gradation, m>2, second image data, so as to reconstruct a reconstructed image of the object, wherein a number of pixels of the first image data is larger than a number of pixels of the second image data, wherein each pixel of the second image data is associated with a pixel group comprising a plurality of L pixels of the first image data, and wherein, in a case in which the second image data is configured as m-gradation data, m≥3, a normalized gradation value k of a given pixel of the second image data is set to one from among m values from 0, 1/(m-1), 2/(m-1),..., (m-2)/(m-1), and 1, and with a number of pixels having a value of 1 included in the pixel group that corresponds to the given pixel as l, a relation l = L × k holds true. a light source structured to generate a light beam having a uniform intensity distribution; a patterning device structured to modulate the intensity distribution of the light beam according to two-gradation first image data; a photodetector structured to receive reflected light from an object; a controller structured to generate second image data, and structured to convert the second image data so as to generate the first image data, a processing device structured to perform calculation of a correlation between a detection intensity based on an output of the photodetector and the m-gradation, m>2, second image data, so as to reconstruct a reconstructed image of the object, wherein a number of pixels of the first image data is larger than a number of pixels of the second image data, wherein each pixel of the second image data is associated with a pixel group comprising a plurality of L pixels of the first image data, and wherein, in a case in which the second image data is configured as m-gradation data, m≥3, a normalized gradation value k of a given pixel of the second image data is set to one from among m values from 0, 1/(m-1), 2/(m-1),..., (m-2)/(m-1), and 1, and with a number of pixels having a value of 1 included in the pixel group that corresponds to the given pixel as l, a relation l = L × k holds true.
A bearing device for a wheel, comprising: a roller bearing having an outer member having on an inner circumference thereof double row raceway surfaces (26, 27); an inner member (1, 24) having on an outer circumference thereof double row raceway surfaces (28, 29); and double row rolling elements interposed between the raceway surfaces (26, 27) of the outer member and the raceway surfaces (28, 29) of the inner member (1, 24), the inner member (1, 24) comprising on an outer surface thereof a hub wheel having a wheel attaching flange, the hub wheel being integrated with, via a convex and concave fitting structure, a shaft portion of an outer joint member of a constant velocity universal joint fitted and inserted to a hole portion of the hub wheel, characterized in that a convex portion extending in an axial direction and provided on one of an outer diameter surface of the shaft portion of the outer joint member of the constant velocity universal joint and an inner diameter surface of the hole portion of the hub wheel is press-fitted to the other along the axial direction, and a concave portion intimately attached and fitted to the convex portion is formed on the other by the press-fitted convex portion cutting into the other and a material of the other is chipped away by the press-fitted convex portion, thereby configuring the convex and concave fitting structure where an entire area of fitting and contact between the convex portion and the concave portion is in an intimate contact state, while providing a shaft portion come-off preventing structure between the shaft portion of the outer joint member and the inner surface of the hub wheel.
A retarder device for a vehicle, comprising - at least one retarder; - an input device by means of which a vehicle deceleration demand is selectable which encodes a deceleration that is to be achieved proceeding from an existing vehicle movement; and - a retarder control device which is configured so as to determine a retarder braking demand, which encodes a retarder braking moment that is to be imparted by the retarder, in a manner dependent on the selected vehicle deceleration demand, which retarder control device, in setting the retarder braking moment by means of the at least one retarder, always sets the same decelerations of the vehicle for the same vehicle deceleration demands, in particular independently of the present total vehicle mass, characterized in that the retarder control device is configured to perform closed-loop control of the retarder operation, in the case of which a deviation of a continuously determined actual vehicle acceleration, as control variable, is compared with a setpoint vehicle deceleration, corresponding to the selected vehicle deceleration demand, as reference variable, and, in the event of control deviations, the retarder braking demand as manipulated variable is adapted. - at least one retarder; - an input device by means of which a vehicle deceleration demand is selectable which encodes a deceleration that is to be achieved proceeding from an existing vehicle movement; and - a retarder control device which is configured so as to determine a retarder braking demand, which encodes a retarder braking moment that is to be imparted by the retarder, in a manner dependent on the selected vehicle deceleration demand, which retarder control device, in setting the retarder braking moment by means of the at least one retarder, always sets the same decelerations of the vehicle for the same vehicle deceleration demands, in particular independently of the present total vehicle mass, characterized
A card device configured to be inserted into and ejected from a host device in a first direction, comprising: a first housing including a leading edge, which is inserted into the host device, and a trailing edge opposite to the leading edge, and concave regions formed on a surface of the first housing; a first electrode array including first electrodes aligned in a second direction along the leading edge; and a second electrode array including second electrodes aligned in the second direction between the first electrode array and the trailing edge, wherein the second electrodes include an electrode which misaligns with the first electrodes in the second direction, wherein the concave regions include a first concave region extending from the leading edge toward the trailing edge, and a second concave region (144A, 146A) adjacent to the first concave region, the second concave region (144A, 146A) extending from the leading edge toward the trailing edge, wherein the first and second electrode arrays (120, 130) are situated in the first concave region, wherein a number of the second electrodes situated in the first concave region is different from a number of the first electrodes situated in the concave region, the second concave region (144A, 146A) includes a first region (161, 163), which is adjacent to the first electrodes in the first concave region, and a second region (162, 164), which is adjacent to the second electrodes in the first concave region, wherein the first electrodes are situated in the first region (161, 163), characterized in that no electrodes are situated in the second region (162, 164). a first housing including a leading edge, which is inserted into the host device, and a trailing edge opposite to the leading edge, and concave regions formed on a surface of the first housing; a first electrode array including first electrodes aligned in a second direction along the leading edge; and a second electrode array including second electrodes aligned in the second direction between the first electrode array and the trailing edge, wherein the second electrodes include an electrode which misaligns with the first electrodes in the second direction, wherein the concave regions include a first concave region extending from the leading edge toward the trailing edge, and a second concave region (144A, 146A) adjacent to the first concave region, the second concave region (144A, 146A) extending from the leading edge toward the trailing edge, wherein the first and second electrode arrays (120, 130) are situated in the first concave region, wherein a number of the second electrodes situated in the first concave region is different from a number of the first electrodes situated in the concave region, the second concave region (144A, 146A) includes a first region (161, 163), which is adjacent to the first electrodes in the first concave region, and a second region (162, 164), which is adjacent to the second electrodes in the first concave region, wherein the first electrodes are situated in the first region (161, 163), characterized in that no electrodes are situated in the second region (162, 164).