mhurhangee/ep-ind-claims huggingface dataset:
A defocused optic for mixing light output from a multi-chip LED, comprising: an interior reflector (140, 240) having a central axis (111, 211); and an outer reflector surrounding said interior reflector (140, 240) and said central axis (111, 211), said outer reflector having a concave inner surface (122, 126, 222, 226) provided about said central axis (111, 211), said concave inner surface redirecting a majority of said light output impingent thereon toward an illumination area, said interior reflector (140, 240) having a convex surface (142, 242) facing said multi-chip LED, said convex surface (142, 242) redirecting a majority of said light output impingent thereon toward said outer reflector; characterised in that said concave inner surface (122, 126, 222, 226) defines a first concave surface profile at a first angular position relative to said central axis (111, 211) and a second concave surface profile at a second angular position relative to said central axis (111, 211), said first concave surface profile distinct from said second concave surface profile; said convex surface (142, 242) defines a first convex profile at said first angular position and a second convex profile at said second angular position, said first convex profile distinct from said second convex profile. an interior reflector (140, 240) having a central axis (111, 211); and an outer reflector surrounding said interior reflector (140, 240) and said central axis (111, 211), said outer reflector having a concave inner surface (122, 126, 222, 226) provided about said central axis (111, 211), said concave inner surface redirecting a majority of said light output impingent thereon toward an illumination area, said interior reflector (140, 240) having a convex surface (142, 242) facing said multi-chip LED, said convex surface (142, 242) redirecting a majority of said light output impingent thereon toward said outer reflector; characterised in that said concave inner surface (122, 126, 222, 226) defines a first concave surface profile at a first angular position relative to said central axis (111, 211) and a second concave surface profile at a second angular position relative to said central axis (111, 211), said first concave surface profile distinct from said second concave surface profile; said convex surface (142, 242) defines a first convex profile at said first angular position and a second convex profile at said second angular position, said first convex profile distinct from said second convex profile.
Computer-implemented method for detecting a state of wear of a component (210, 225, 235) of a door drive system of a rail vehicle, wherein the method comprises the following steps: - a step of reading in a sequence of first motor parameters of an electric motor of the door drive system and second motor parameters of the electric motor of the door drive system, wherein the first motor parameters represent a different physical variable of the electric motor of the door drive systems than the second motor parameters, characterised in that - before the reading in step a step of arresting and/or of retarding at least one component (210, 225, 235) of the door drive systems by means of a pin is performed, and after the reading in step - a step of testing is performed whether a value which represents the correlation of the sequence of the first motor parameter with the sequence of the second motor parameter satisfies a predetermined criterion in order to detect the state of wear of the component (210, 225, 235) of the door drive system. - a step of reading in a sequence of first motor parameters of an electric motor of the door drive system and second motor parameters of the electric motor of the door drive system, wherein the first motor parameters represent a different physical variable of the electric motor of the door drive systems than the second motor parameters, characterised in that - before the reading in step a step of arresting and/or of retarding at least one component (210, 225, 235) of the door drive systems by means of a pin is performed, and after the reading in step - a step of testing is performed whether a value which represents the correlation of the sequence of the first motor parameter with the sequence of the second motor parameter satisfies a predetermined criterion in order to detect the state of wear of the component (210, 225, 235) of the door drive system.
A correction apparatus for correcting the planarity of a metal strip advancing into a coating system for coating said metal strip with a layer of molten metal, said apparatus comprising - a bridle roll adapted to modify the direction of the feeding path of the metal strip exiting an annealing furnace; - only one sink roll, arranged downstream of the bridle roll along said feeding path and inside a tank adapted to contain a bath of said molten metal, said sink roll being adapted to modify the direction of the feeding path of the metal strip inside the tank; - a correction device for correcting the planarity of the metal strip, arranged between said fixed bridle and said sink roll; wherein said correction device comprises at least two motorized rolls (5, 6) arranged outside the tank, wherein a first motorized roll of said at least two motorized rolls is distal from said bridle roll in a fixed position with respect to the feeding path of the metal strip, said first motorized roll being arranged on a first side of said feeding path; wherein said bridle roll is also arranged on said first side; and wherein a second motorized roll of said at least two motorized rolls is arranged on a second side, opposite to the first side, of said feeding path, is proximal to said bridle roll and movable along a trajectory which intersects a plane A, defined by the rotation axes X, Y of the bridle roll and the first motorized roll, respectively, in an intermediate position between said rotation axes X, Y, so as to bend said metal strip in the opposite direction to the bending imparted by said bridle roll. - a bridle roll adapted to modify the direction of the feeding path of the metal strip exiting an annealing furnace; - only one sink roll, arranged downstream of the bridle roll along said feeding path and inside a tank adapted to contain a bath of said molten metal, said sink roll being adapted to modify the direction of the feeding path of the metal strip inside the tank; - a correction device for correcting the planarity of the metal strip, arranged between said fixed bridle and said sink roll; wherein said correction device comprises at least two motorized rolls (5, 6) arranged outside the tank, wherein a first motorized roll of said at least two motorized rolls is distal from said bridle roll in a fixed position with respect to the feeding path of the metal strip, said first motorized roll being arranged on a first side of said feeding path; wherein said bridle roll is also arranged on said first side; and wherein a second motorized roll of said at least two motorized rolls is arranged on a second side, opposite to the first side, of said feeding path, is proximal to said bridle roll and movable along a trajectory which intersects a plane A, defined by the rotation axes X, Y of the bridle roll and the first motorized roll, respectively, in an intermediate position between said rotation axes X, Y, so as to bend said metal strip in the opposite direction to the bending imparted by said bridle roll.
A device for monitoring operation of a probe of an implantable active cardiac device, in particular an implantable automatic defibrillator or a defibrillator for cardiac resynchronization, comprising: a parameter determining device for determining values of a plurality of parameters characterizing the probe; a processing unit configured to determine representative values of at least one of the plurality of parameters characterizing the probe based on at least two different time scales, wherein the processing unit is further configured to compare a value as an analysis value of at least one of the plurality of parameters characterizing the probe with the representative values of said parameter. a parameter determining device for determining values of a plurality of parameters characterizing the probe; a processing unit configured to determine representative values of at least one of the plurality of parameters characterizing the probe based on at least two different time scales, wherein the processing unit is further configured to compare a value as an analysis value of at least one of the plurality of parameters characterizing the probe with the representative values of said parameter.
Method for subscribing a mobile equipment to information on events of at least one type from a notification service linked to the geography of a location, said notification service being hosted in a data processing peripheral server in an MEC architecture network, said method being implemented in said mobile equipment and comprising steps of: - sending of a message requesting registration to a central server of said network, - sending of a message for subscription, intended for said data processing peripheral server, to said at least one type of event, - reception of a message giving information to said mobile equipment on an event of said at least one type, said method being such that said registration request message indicates said at least one type of event and that the step of sending of a subscription message is conditioned on the existence of a preceding step of reception of a notification message that an event of said at least one type has occurred in said location, corresponding information being stored in said peripheral server, said notification message being delivered to said mobile equipment over a fast messaging channel called "paging" channel. - sending of a message requesting registration to a central server of said network, - sending of a message for subscription, intended for said data processing peripheral server, to said at least one type of event, - reception of a message giving information to said mobile equipment on an event of said at least one type,
A method comprising: when a frame of active speech data is sent to a decoder, measuring the synchronization delay; measuring an average amount of time that a frame resides in a jitter buffer; determining by how much the synchronization delay should be adjusted by selecting an adjustment that causes the average duration to approach a desired jitter buffer residency duration; selecting a frame of the active speech data for adjustment purposes in dependence on characteristics of the active speech data reflected in the frame; and adjusting the synchronization delay during a period of active speech by adding or removing one or more audio samples in the selected frame when a frame of active speech data is sent to a decoder, measuring the synchronization delay; measuring an average amount of time that a frame resides in a jitter buffer; determining by how much the synchronization delay should be adjusted by selecting an adjustment that causes the average duration to approach a desired jitter buffer residency duration; selecting a frame of the active speech data for adjustment purposes in dependence on characteristics of the active speech data reflected in the frame; and adjusting the synchronization delay during a period of active speech by adding or removing one or more audio samples in the selected frame
A timing chain drive device comprising: a crank sprocket which is connected to a crankshaft; a cam sprocket (3, 4) which is connected to a cam shaft; a timing chain which is endlessly wound around the crank sprocket and the cam sprocket (3, 4); and a first chain guide which includes a plurality of rollers each supported by a rolling element and gives tension to the timing chain by using a pressing device; characterized in that a second chain guide is provided which includes a plurality of rollers each supported by a rolling element and guides the stretched side of the timing chain, the rollers in each of the first chain guide and the second chain guide are disposed between a pair of side plate members, which have a predetermined interval between each other in a width direction, and an outer ring of a roller bearing constituting each of the rollers is lower than end surfaces of the pair of side plate members, such that the timing chain is guided between the mutually facing wall surfaces of the side plate members while being in contact with the outer peripheral surface of each of the rollers.
A control system for managing operational limits associated with two or more actuators (110, 120), comprising: a controller continually monitoring: a first operational limit associated with a first actuator; and a first operational limit associated with a second actuator; and wherein the controller determines a first overall distributed control system operating limit based on the first operational limit associated with the first actuator, the first operational limit associated with the second actuator, and a type of operational limit associated with both operational limits, characterized in that the controller stops commands to both the first actuator and the second actuator based on one or more of the actuators (110, 120) reaching its associated operational limit. a controller continually monitoring: a first operational limit associated with a first actuator; and a first operational limit associated with a second actuator; and a first operational limit associated with a first actuator; and a first operational limit associated with a second actuator; and wherein the controller determines a first overall distributed control system operating limit based on the first operational limit associated with the first actuator, the first operational limit associated with the second actuator, and a type of operational limit associated with both operational limits, characterized in that the controller stops commands to both the first actuator and the second actuator based on one or more of the actuators (110, 120) reaching its associated operational limit.
A communication method, comprising: detecting, by a terminal based on a synchronization signal raster, a synchronization signal from a network device, wherein a size of the synchronization signal raster is determined based on a frequency band in which a carrier is located, and a first physical resource block, PRB, grid is used for the synchronization signal; receiving, by the terminal through a physical broadcast channel, PBCH, first indication information from the network device, wherein the first indication information is used to indicate a first frequency offset between the first PRB grid and a second PRB grid; determining (S650, S121), by the terminal, the second PRB grid based on the first PRB grid and the first frequency offset; receiving, by the terminal through remaining minimum system information, RMSI, second indication information from the network device, wherein the second indication information is used to indicate a second frequency offset between the second PRB grid and a third PRB grid; and performing, by the terminal, information transmission with the network device based on the third PRB grid. detecting, by a terminal based on a synchronization signal raster, a synchronization signal from a network device, wherein a size of the synchronization signal raster is determined based on a frequency band in which a carrier is located, and a first physical resource block, PRB, grid is used for the synchronization signal; receiving, by the terminal through a physical broadcast channel, PBCH, first indication information from the network device, wherein the first indication information is used to indicate a first frequency offset between the first PRB grid and a second PRB grid; determining (S650, S121), by the terminal, the second PRB grid based on the first PRB grid and the first frequency offset; receiving, by the terminal through remaining minimum system information, RMSI, second indication information from the network device, wherein the second indication information is used to indicate a second frequency offset between the second PRB grid and a third PRB grid; and performing, by the terminal, information transmission with the network device based on the third PRB grid.
A self-polishing antifouling coating composition comprising a. a base component comprising a hydroxy-functional pre-polymer which is curable in the presence of a curing agent comprising one or more polyisocyanates (component b), said pre-polymer having a weight average molecular weight (M w) in the range of 1,000-120,000 g/mol, and said pre-polymer having at least one side chain bearing at least one terminal group of the general formula: wherein X designates a carbonyl group (>C=O), and R 3, R 4 and R 5 are each independently selected from C 1-20 -alkyl and optionally substituted phenyl and wherein the hydroxy value of the pre-polymer is in the range of 2-400 mg KOH/Solid·g; and b. a curing agent comprising one or more polyisocyanates (component b) the coating composition further comprises antifouling agent(s) in an amount of 0.05-25 % by solids volume of the coating composition. a. a base component comprising a hydroxy-functional pre-polymer which is curable in the presence of a curing agent comprising one or more polyisocyanates (component b), said pre-polymer having a weight average molecular weight (M w) in the range of 1,000-120,000 g/mol, and said pre-polymer having at least one side chain bearing at least one terminal group of the general formula: wherein X designates a carbonyl group (>C=O), and R 3, R 4 and R 5 are each independently selected from C 1-20 -alkyl and optionally substituted phenyl and wherein the hydroxy value of the pre-polymer is in the range of 2-400 mg KOH/Solid·g; and b. a curing agent comprising one or more polyisocyanates (component b) the coating composition further comprises antifouling agent(s) in an amount of 0.05-25 % by solids volume of the coating composition.
A device for compensating for tolerances between a first and second component, having a base element, having a compensating element which engages with the base element by means of a threading and in which a passage is formed for a connecting means, and having a spring element arranged in the passage of the compensating element, wherein the spring element comprises at least one spring arm which, as seen in its longitudinal direction, has two opposite end regions, wherein at least one of the end regions has a greater distance from a longitudinal central axis of the spring element than an intermediate section of the spring arm situated between the end regions, wherein at least one of the end regions forms a corner which protrudes radially outwards, and wherein a plurality of spring arms are arranged around the longitudinal central axis of the spring element and are connected to one another by means of a connecting ring, characterized in that the connecting ring has a slot, which is aligned at least approximately parallel to the longitudinal central axis of the spring element and is bounded by two adjacent spring arms, and at least one end region of a spring arm facing the slot has a corner which protrudes radially outwards.
A motor comprising: a stator comprising an annular core, stator poles extending from the annular core, and phase windings wound on the stator poles; and a rotor comprising: rotor poles facing ends of the stator poles, a rotor axle extending axially from the rotor to an inside of the annular core, and only one bearing element, being positioned between the rotor axle and the stator, radially within the annular core, to rotationally couple the rotor to the stator; the stator further comprising: a bearing locating member that mounts the bearing element radially and axially inside the annular core, an insulator covering surfaces of the stator poles, the windings being wound onto the stator poles over the insulator, the bearing locating member being integrally formed with the insulator, and a compliant mount positioned between the bearing element and the bearing locating member or between the rotor axle and the bearing element to allow for misalignment between the stator and rotor axes. a stator comprising an annular core, stator poles extending from the annular core, and phase windings wound on the stator poles; and a rotor comprising: rotor poles facing ends of the stator poles, a rotor axle extending axially from the rotor to an inside of the annular core, and only one bearing element, being positioned between the rotor axle and the stator, radially within the annular core, to rotationally couple the rotor to the stator; rotor poles facing ends of the stator poles, a rotor axle extending axially from the rotor to an inside of the annular core, and only one bearing element, being positioned between the rotor axle and the stator, radially within the annular core, to rotationally couple the rotor to the stator; the stator further comprising: a bearing locating member that mounts the bearing element radially and axially inside the annular core, an insulator covering surfaces of the stator poles, the windings being wound onto the stator poles over the insulator, the bearing locating member being integrally formed with the insulator, and a compliant mount positioned between the bearing element and the bearing locating member or between the rotor axle and the bearing element to allow for misalignment between the stator and rotor axes. a bearing locating member that mounts the bearing element radially and axially inside the annular core, an insulator covering surfaces of the stator poles, the windings being wound onto the stator poles over the insulator, the bearing locating member being integrally formed with the insulator, and a compliant mount positioned between the bearing element and the bearing locating member or between the rotor axle and the bearing element to allow for misalignment between the stator and rotor axes.