mhurhangee/ep-ind-claims huggingface dataset:
A method of generating map data, the method comprising; retrieving, by one or more processors, data generated by a perception system of a vehicle (101; 101A) corresponding to a plurality of observations including observed positions of a passenger (122; 132; 142) of the vehicle as the passenger approached the vehicle at a first location; determining, by the one or more processors, using the data, an observed distance traveled by the passenger to reach the vehicle from an observed position when the passenger was first detected by the perception system, wherein the observed position is of an observation of the plurality of observations; determining, by the one or more processors, a road edge distance between the observed position and a nearest road edge to the observed position; determining, by the one or more processors, an inconvenience value for the first location using the observed distance and the road edge distance; and generating, by the one or more processors, the map data using the inconvenience value. retrieving, by one or more processors, data generated by a perception system of a vehicle (101; 101A) corresponding to a plurality of observations including observed positions of a passenger (122; 132; 142) of the vehicle as the passenger approached the vehicle at a first location; determining, by the one or more processors, using the data, an observed distance traveled by the passenger to reach the vehicle from an observed position when the passenger was first detected by the perception system, wherein the observed position is of an observation of the plurality of observations; determining, by the one or more processors, a road edge distance between the observed position and a nearest road edge to the observed position; determining, by the one or more processors, an inconvenience value for the first location using the observed distance and the road edge distance; and generating, by the one or more processors, the map data using the inconvenience value.
A method for adapting at least one cylinder dressing to a printing material change in a printing machine, in which at least one cylinder dressing or the relevant cylinder dressing is clamped with several clamping elements arranged in a cylinder channel of a plate cylinder of the printing machine on the lateral surface of the relevant plate cylinder, in which case by means of a movement of at least one of the clamping elements in axial direction and/or in circumferential direction of the plate cylinder within the respective cylinder dressing in each case a tensile stress is established, characterized in that the adaptation of the at least one cylinder dressing to the printing material change occurs by means of specific data for the respective cylinder dressing stored in at least one memory connected to a control computer, wherein the specific data for the respective cylinder dressing in each case relate to a height and/or a type of the relevant cylinder dressing, wherein within the respective cylinder dressing to be adapted to a printing material change in each case first the tensile stress is established in axial direction and then the tensile stress is established in circumferential direction of the relevant plate cylinder.
An electronic rodent trap for electrocuting rodents comprising: at least one battery; a micro-controller powered by said at least one battery; a circuit for boosting an output voltage of said at least one battery, said circuit including a multi-stage charge pump driven by a pulse train from said micro-controller and configured to generate an output having a voltage higher than said battery output voltage; killing plates coupled to a transformer for electrocuting a rodent when activated; a drive circuit connected to the output of said charge pump and to a high-voltage MOSFET coupled to the transformer, characterized in that, the MOSFET when turned on generating a high voltage by rapidly switching a ground return path of the transformer to create a flyback voltage that activates the killing plates, the higher voltage output of the charge pump fully activating the MOSFET even when the output voltage of the at least one battery has dropped to a level insufficient to fully turn on the MOSFET, thereby extending the life of the at least one battery. at least one battery; a micro-controller powered by said at least one battery; a circuit for boosting an output voltage of said at least one battery, said circuit including a multi-stage charge pump driven by a pulse train from said micro-controller and configured to generate an output having a voltage higher than said battery output voltage; killing plates coupled to a transformer for electrocuting a rodent when activated; a drive circuit connected to the output of said charge pump and to a high-voltage MOSFET coupled to the transformer, characterized in that, the MOSFET when turned on generating a high voltage by rapidly switching a ground return path of the transformer to create a flyback voltage that activates the killing plates, the higher voltage output of the charge pump fully activating the MOSFET even when the output voltage of the at least one battery has dropped to a level insufficient to fully turn on the MOSFET, thereby extending the life of the at least one battery.
A method of managing wireless network components, the wireless network components include a set of cells (102, 104) including one or more small cells and one or more macro cells, the method comprising: transmitting information for managing a handover trigger parameter, wherein the handover trigger parameter is utilized by user equipment to transmit handover requests to one or more cells (102, 104) in the set of cells (102, 104); obtaining handover requests transmitted by user equipment, the handover requests transmitted based, at least in part, on the transmitted information for managing the handover trigger parameter; if the handover requests correspond to a handover request to a small cell, processing the handover requests based, at least in part, on a probability of at least one of alternative macro cell coverage and previous handover failure rate; and managing handovers between a small cell and a macro cell based, at least in part, on user equipment speed information. transmitting information for managing a handover trigger parameter, wherein the handover trigger parameter is utilized by user equipment to transmit handover requests to one or more cells (102, 104) in the set of cells (102, 104); obtaining handover requests transmitted by user equipment, the handover requests transmitted based, at least in part, on the transmitted information for managing the handover trigger parameter; if the handover requests correspond to a handover request to a small cell, processing the handover requests based, at least in part, on a probability of at least one of alternative macro cell coverage and previous handover failure rate; and managing handovers between a small cell and a macro cell based, at least in part, on user equipment speed information.
Multilayer sheet material in the form of a printing blanket or of a printing plate which comprises a multiple-ply printing layer (1,2) made of at least one polymeric material and which comprises at least one other layer (3, 4), where the individual layers form, with one another, an adhesive bond which is not amenable to nondestructive separation, characterized in that the upper ply, which during the printing procedure faces toward the object to be printed, comprises from 40 to 80 phr of butadiene rubber and from 20 to 60 phr of butyl rubber, and the lower ply, which during the printing procedure faces away from the object to be printed, comprises from 80 to 100 phr of butyl rubber.
A method for detecting surface unevenness of an object under inspection, comprising: casting two slit lights of mutually different wavelengths at a target surface of the object under inspection simultaneously from two mutually different directions while moving the object under inspection relative to two illuminating means (11, 12) for casting the two slit lights and to an image pickup means; shooting a reflected image of a portion illuminated by the slit lights with the image pickup means; separating the reflected image into two reflected images for the respective wavelengths by image processing of the reflected image; obtaining two luminance distribution waveforms for the two series of separated reflected images respectively, which luminance distribution waveforms are waveforms of the luminance values along the direction in which the object under inspection is moved relative to the illuminating means (11, 12); and detecting surface unevenness of the object under inspection based on the respective luminance distribution waveforms, characterized in that: in the detecting step, a degree of uneven surface inclination of the target surface of the object under inspection is calculated using the incident directions of the two slit lights to the target surface of the object under inspection, a ratio of intensity of the two slit lights of mutually different wavelengths and a ratio of luminance of reflected images for the respective wavelengths obtained from the respective luminance distribution waveforms, and the calculated degree of inclination is compared with a preset threshold value to determine, when the degree of inclination exceeds the preset threshold value, that surface unevenness exists, and when the degree of inclination does not exceed the preset threshold value, that surface unevenness does not exist, to thereby detect surface unevenness of the object under inspection. casting two slit lights of mutually different wavelengths at a target surface of the object under inspection simultaneously from two mutually different directions while moving the object under inspection relative to two illuminating means (11, 12) for casting the two slit lights and to an image pickup means; shooting a reflected image of a portion illuminated by the slit lights with the image pickup means; separating the reflected image into two reflected images for the respective wavelengths by image processing of the reflected image; obtaining two luminance distribution waveforms for the two series of separated reflected images respectively, which luminance distribution waveforms are waveforms of the luminance values along the direction in which the object under inspection is moved relative to the illuminating means (11, 12); and detecting surface unevenness of the object under inspection based on the respective luminance distribution waveforms, characterized in that:
Use of a composition comprising a) at least one compound according to formula wherein Ra is a C 5 to C 29 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, Rb is a C 1 to C 23 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, or a compound obtainable from formula 1 by eliminating one mole of water from the polyhydroxy group, thereby forming a cyclic ether, and b) at least one sulfur synergist selected from the group consisting of b1) a compound according to formula R 1 -S-R 2 wherein R 1 and R 2 are independently hydrogen, C 1 to C 18 alkyl, C 2 to C 18 alkenyl or a C 7 to C 18 alkyl aromatic group, and wherein R 1 and R 2 may contain oxygen or nitrogen atoms, or may be substituted with a carboxylic acid group or an amide group, with the proviso that R 1 and R 2 are not both hydrogen b2) a metal or ammonium thiosulfate salt, and b3) a compound according to formula S=C(NHR 5)(NHR 6) wherein R 5 and/or R 6 are H, C 1 to C 10 alkyl, C 2 to C 10 alkenyl or C 5 to C 9 aryl groups or mixtures thereof, as a corrosion inhibitor for metallic oilfield equipment. a) at least one compound according to formula wherein Ra is a C 5 to C 29 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, Rb is a C 1 to C 23 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, or a compound obtainable from formula 1 by eliminating one mole of water from the polyhydroxy group, thereby forming a cyclic ether, and Ra is a C 5 to C 29 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, Rb is a C 1 to C 23 linear, branched, saturated or unsaturated aliphatic hydrocarbon group, b) at least one sulfur synergist selected from the group consisting of b1) a compound according to formula R 1 -S-R 2 wherein R 1 and R 2 are independently hydrogen, C 1 to C 18 alkyl, C 2 to C 18 alkenyl or a C 7 to C 18 alkyl aromatic group, and wherein R 1 and R 2 may contain oxygen or nitrogen atoms, or may be substituted with a carboxylic acid group or an amide group, with the proviso that R 1 and R 2 are not both hydrogen b2) a metal or ammonium thiosulfate salt, and b3) a compound according to formula S=C(NHR 5)(NHR 6) wherein R 5 and/or R 6 are H, C 1 to C 10 alkyl, C 2 to C 10 alkenyl or C 5 to C 9 aryl groups or mixtures thereof, as a corrosion inhibitor for metallic oilfield equipment. b1) a compound according to formula R 1 -S-R 2 wherein R 1 and R 2 are independently hydrogen, C 1 to C 18 alkyl, C 2 to C 18 alkenyl or a C 7 to C 18 alkyl aromatic group, and wherein R 1 and R 2 may contain oxygen or nitrogen atoms, or may be substituted with a carboxylic acid group or an amide group, with the proviso that R 1 and R 2 are not both hydrogen b2) a metal or ammonium thiosulfate salt, and b3) a compound according to formula S=C(NHR 5)(NHR 6) wherein R 5 and/or R 6 are H, C 1 to C 10 alkyl, C 2 to C 10 alkenyl or C 5 to C 9 aryl groups or mixtures thereof, as a corrosion inhibitor for metallic oilfield equipment.
An electrode for tungsten inert gas welding having an electrode which tapers conically in the direction of a workpiece, which is electrically connected as a cathode, which is hollow inside and which can be fixed in a torch body and a hollow space (1.2) formed in this manner within the electrode has an opening in the direction of the workpiece and at least one further opening, wherein at least one recess (1.1) is formed at a spacing G from the tip facing in the direction of the workpiece at the outer and/or inner surface of the internally hollow electrode and/or the hollow space (1.2) conducted through the electrode has regions having different inner diameters, characterized in that a region having a reduced electrical conductivity and/or thermal conductivity and a reduced wall thickness of the electrode is formed by the at least one recess (1.1) and is arranged in a non-conically tapered region in the direct vicinity of the conically tapering region (1.3) of the electrode or regions having different inner diameters of the hollow space (1.2) are arranged with a region of reduced electrical conductivity and/or thermal conductivity and a reduced wall thickness of the electrode in the conically tapering region (1.3) of the electrode.
A method for wireless communication, comprising: transmitting, by a target access and mobility control function for handover of a mobile device from an evolved packet system, EPS, to a fifth-generation, 5G, system, a session request to a session management function, and receiving, by the target access and mobility control function, a session response from the session management function, wherein the session response includes a packet data unit session identifier and a list of allocated bearer identifiers, each bearer identifier in the list corresponding to a priority, and wherein the session response further comprises information indicating whether a bearer corresponding to a bearer identifier is allocated by a mobile management entity or a source access and mobility control function. transmitting, by a target access and mobility control function for handover of a mobile device from an evolved packet system, EPS, to a fifth-generation, 5G, system, a session request to a session management function, and receiving, by the target access and mobility control function, a session response from the session management function, wherein the session response includes a packet data unit session identifier and a list of allocated bearer identifiers, each bearer identifier in the list corresponding to a priority, and wherein the session response further comprises information indicating whether a bearer corresponding to a bearer identifier is allocated by a mobile management entity or a source access and mobility control function.
A contactless charger comprising: a charging surface including an array of transmitter sub arrays, each transmitter sub array having a plurality of ultrasonic transmitters; and logic configured to: detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers. a charging surface including an array of transmitter sub arrays, each transmitter sub array having a plurality of ultrasonic transmitters; and logic configured to: detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers. detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers.
A terminal comprising: a receiving section adapted to receive a medium access control-control element, MAC CE, indicating a transmission configuration indication, TCI, state for a physical downlink control channel; and a control section adapted to, when a reference signal for pathloss reference for a physical uplink control channel is not configured, apply to transmission of the physical uplink control channel a pathloss estimation based on a reference signal with quasi co-location type of type D in the TCI state. a receiving section adapted to receive a medium access control-control element, MAC CE, indicating a transmission configuration indication, TCI, state for a physical downlink control channel; and a control section adapted to, when a reference signal for pathloss reference for a physical uplink control channel is not configured, apply to transmission of the physical uplink control channel a pathloss estimation based on a reference signal with quasi co-location type of type D in the TCI state.
A method for drilling a hole in a rock with a top-hammer rock drilling rig comprising a rock drill, to which is attached a drill rod, at one end of which there is attached a drill bit, and which includes a percussion device and a rotation motor, in which method the drill rod and the drill bit are rotated with the rotation motor, and stress pulses are directed with the percussion device via the drill rod and the drill bit to the rock for breaking the rock, characterized in that the drill bit used is a cone roller bit and that the percussion device generates stress pulses of low amplitude at a high frequency such that the load factor (α) of the drill bit is at least 0.075.
A stimulation device comprising a first arm having a proximal end portion and a distal end portion and a second arm having a proximal end portion and a distal end portion, wherein the first arm and the second arm are connected with each other at their respective proximal end portion (2a, 4a) so as to form an essentially U- or V-shaped arrangement with the distal end portions (2a, 4a) of the first and second arms (2, 4) being spaced from each other so that the first arm is adapted to be inserted into a vagina and the second arm is adapted to get, essentially at the same time, into contact with a body portion outside the vagina, wherein a third arm having a proximal end portion and a distal end portion and connected at its proximal end portion with the proximal end portion (2a; 4a) of the first arm and/or the second arm, wherein the third arm extends in an essentially opposite direction with regard to the orientation of the first arm and/or the second arm and is adapted to be inserted into a sexual organ, characterized in that the third arm and at least one of the first and second arms (2, 4) each includes vibration means (10,12, 14) and a switch means for activating, deactivating and controlling the vibration means (10, 12, 14), wherein the switch means are arranged essentially in the region of connection of the proximal end portions(2a, 4a, 6a) of the three arms (2, 4,6) and wherein the first, second and third arms (2, 4, 6) commonly form an integral body.