mhurhangee/ep-ind-claims huggingface dataset:
An information transmission method, characterized by comprising: sending, by a User plane Function, UPF, entity of a core network element, a first data packet to a terminal, the first data packet carrying first timestamp information and being used for the terminal to measure a one-way delay between the UPF entity of the core network element and the terminal, the first timestamp information being used for indicating information about a time at which the UPF entity of the core network element sends the first data packet; wherein the method comprises, before sending: adding, by the UPF entity of the core network element, information, comprising the first timestamp information and carried in the first data packet, through a first protocol layer of the UPF entity of the core network element, the first protocol layer being established between the terminal and the core network and located above a General Packet Radio Service Tunneling Protocol-User plane, GTP-U, layer. sending, by a User plane Function, UPF, entity of a core network element, a first data packet to a terminal, the first data packet carrying first timestamp information and being used for the terminal to measure a one-way delay between the UPF entity of the core network element and the terminal, the first timestamp information being used for indicating information about a time at which the UPF entity of the core network element sends the first data packet; wherein the method comprises, before sending: adding, by the UPF entity of the core network element, information, comprising the first timestamp information and carried in the first data packet, through a first protocol layer of the UPF entity of the core network element, the first protocol layer being established between the terminal and the core network and located above a General Packet Radio Service Tunneling Protocol-User plane, GTP-U, layer. adding, by the UPF entity of the core network element, information, comprising the first timestamp information and carried in the first data packet, through a first protocol layer of the UPF entity of the core network element, the first protocol layer being established between the terminal and the core network and located above a General Packet Radio Service Tunneling Protocol-User plane, GTP-U, layer.
A controller for a multi-voltage on-board power supply system in a vehicle, comprising: - a first control module which is connected via a first supply path to a first supply voltage connection of the controller and/or to a first ground connection of the controller in order to be supplied with current at a first supply voltage of the multi-voltage on-board power supply system; and - a second control module which is connected via a second supply path to a second supply voltage connection of the controller and/or to a second ground connection of the controller in order to be supplied with current at a second supply voltage of the multi-voltage on-board power supply system; characterized in that the second supply path contains a switching module which is designed to selectively block the second supply path or switch the second supply path in a conductive state depending on a control signal, wherein the controller is designed to generate the control signal depending on a voltage applied to the first supply voltage connection, wherein the first control module has a control signal transceiver which is connected via at least one control signal path to the second control module in order to supply the second control module with a first control signal and/or to receive a second control signal from the second control module. - a first control module which is connected via a first supply path to a first supply voltage connection of the controller and/or to a first ground connection of the controller in order to be supplied with current at a first supply voltage of the multi-voltage on-board power supply system; and - a second control module which is connected via a second supply path to a second supply voltage connection of the controller and/or to a second ground connection of the controller in order to be supplied with current at a second supply voltage of the multi-voltage on-board power supply system; characterized in that the second supply path contains a switching module which is designed to selectively block the second supply path or switch the second supply path in a conductive state depending on a control signal, wherein the controller is designed to generate the control signal depending on a voltage applied to the first supply voltage connection, wherein the first control module has a control signal transceiver which is connected via at least one control signal path to the second control module in order to supply the second control module with a first control signal and/or to receive a second control signal from the second control module.
Electric motor with a rotary encoder and an add-on shaft, which add-on shaft is introduced section by section into a centred blind hole in a motor shaft of the electric motor and is fixed there, wherein an end of the add-on shaft introduced into the blind hole is embodied as a centred pin, and has, when viewed from the end introduced into the blind hole, a first cylindrical section having a first diameter which is less than an internal diameter of the blind hole, followed by a second cylindrical section having a second diameter, followed by a third cylindrical section having a third diameter and in turn followed by a fourth cylindrical section having a fourth diameter, characterised in that the second and the fourth diameter are equal in size, the second and the fourth cylindrical sections (32, 36) act in the blind hole as seats, which bring about an interference fit, and the first and the third diameters are smaller than the second or fourth diameter, and the first surface of the add-on shaft is provided with an adhesive in the region of the third section, and the rotary encoder is arranged on the end of the add-on shaft facing away from the motor shaft, which acts as a drive shaft for the rotary encoder. wherein an end of the add-on shaft introduced into the blind hole is embodied as a centred pin, and has, when viewed from the end introduced into the blind hole, a first cylindrical section having a first diameter which is less than an internal diameter of the blind hole, followed by a second cylindrical section having a second diameter, followed by a third cylindrical section having a third diameter and in turn followed by a fourth cylindrical section having a fourth diameter, characterised in that the second and the fourth diameter are equal in size, the second and the fourth cylindrical sections (32, 36) act in the blind hole as seats, which bring about an interference fit, and the first and the third diameters are smaller than the second or fourth diameter, and the first surface of the add-on shaft is provided with an adhesive in the region of the third section, and the rotary encoder is arranged on the end of the add-on shaft facing away from the motor shaft, which acts as a drive shaft for the rotary encoder.
A disconnector device for a surge arrester, the disconnector device comprising: a housing encompassing a cavity; a disconnector provided inside the cavity, having a first terminal connectable to the surge arrester, a second terminal connectable to ground potential, and a member (40, 41) provided at the second terminal and being fitted to the cross section of the cavity, and a disconnector cartridge; wherein the member (40, 41) is movably arranged such in the housing that once the disconnector operates, the movable member (40, 41) is propelled inside the cavity towards an end of the cavity by gas from the disconnector cartridge, wherein the housing has ventilation openings connecting the cavity to an outside of the disconnector device for releasing gases from the operating disconnector cartridge, and the ventilation openings are slits extending along the cavity in a direction of a longitudinal axis defined by the overall shape of the cavity, characterised by the slits having a width that increases in the direction towards the end of the cavity. a housing encompassing a cavity; a disconnector provided inside the cavity, having a first terminal connectable to the surge arrester, a second terminal connectable to ground potential, and a member (40, 41) provided at the second terminal and being fitted to the cross section of the cavity, and a disconnector cartridge; wherein the member (40, 41) is movably arranged such in the housing that once the disconnector operates, the movable member (40, 41) is propelled inside the cavity towards an end of the cavity by gas from the disconnector cartridge, wherein the housing has ventilation openings connecting the cavity to an outside of the disconnector device for releasing gases from the operating disconnector cartridge, and the ventilation openings are slits extending along the cavity in a direction of a longitudinal axis defined by the overall shape of the cavity, characterised by the slits having a width that increases in the direction towards the end of the cavity.
A weapon, comprising: an upper receiver; a lower receiver; an accessory configured to be removably mounted to a rail of the upper receiver; a system for networking a microcontroller of the accessory to a master CPU of the weapon, wherein data is bi-directionally transferred between the microcontroller of the accessory and the master CPU of the weapon via the rail; characterized in that the system is configured to determine when the accessory is secured to the rail and in that the system and the accessory are further configured to use at least one of a plurality of slots of the rail exclusively for bi-directional data transfer between the accessory and the master CPU. an upper receiver; a lower receiver; an accessory configured to be removably mounted to a rail of the upper receiver; a system for networking a microcontroller of the accessory to a master CPU of the weapon, wherein data is bi-directionally transferred between the microcontroller of the accessory and the master CPU of the weapon via the rail; characterized in that the system is configured to determine when the accessory is secured to the rail and in that the system and the accessory are further configured to use at least one of a plurality of slots of the rail exclusively for bi-directional data transfer between the accessory and the master CPU.
Sunshade apparatus comprising a sun sail which can be drawn off from a winding shaft and of which the draw-off edge which extends between two sail corners is engaged by a tensioning device having two cable ends (7, 8) which extend between the draw-off edge and positionally fixed attachment points, characterised in that the two cable ends (7, 8) are connected at a spaced interval from the associated sail corners to the draw-off edge provided with an edge strip and are guided from the connection points about a respective deflection roller in the region of the sail corners, and in that the deflection rollers are fastened to the sail corners by means of a tension member which can move pivotably in relation to the draw-off edge.
A method for defining absolute position information of an elevator car, the method comprising: - obtaining continuously a pulse position information of the elevator car, and - defining an absolute position information of the elevator car by adding a predefined correction value to the obtained pulse position information of the elevator car, wherein the predefined correction value indicates a drift between the obtained pulse position information of the elevator car and the actual pulse position of the elevator car, wherein a pre-information about at least one door zone magnet at a door zone of each floor of an elevator shaft is obtained and stored during a setup run, the pre-information comprising the following: floor number, identification code, magnet type, pulse position information, linear position information, and the method being characterized in that the predefined correction value is defined during a synchronization run, the synchronization run comprising: - detecting a first door zone magnet of the elevator shaft, - comparing the identification code of the detected first door zone magnet to the stored pre-information in order to identify the detected first door zone magnet, - obtaining from the stored pre-information the pulse position information of the door zone magnet corresponding to the detected first door zone magnet, and - defining the correction value by subtracting the pulse position information of the elevator car at the detection position of the first door zone magnet from the stored pulse position information of the door zone magnet corresponding to the detected first door zone magnet. - obtaining continuously a pulse position information of the elevator car, and - defining an absolute position information of the elevator car by adding a predefined correction value to the obtained pulse position information of the elevator car, wherein the predefined correction value indicates a drift between the obtained pulse position information of the elevator car and the actual pulse position of the elevator car, - detecting a first door zone magnet of the elevator shaft, - comparing the identification code of the detected first door zone magnet to the stored pre-information in order to identify the detected first door zone magnet, - obtaining from the stored pre-information the pulse position information of the door zone magnet corresponding to the detected first door zone magnet, and - defining the correction value by subtracting the pulse position information of the elevator car at the detection position of the first door zone magnet from the stored pulse position information of the door zone magnet corresponding to the detected first door zone magnet.
A gas tank, comprising: a container main-body into which gas is filled; a first thermal foam heat insulation layer provided on an entire outer surface of the container main-body; belt fitting regions provided at portions of the outer surface of the container main-body; two belts, wherein back surfaces of the two belts are fitting surfaces in contact with the belt fitting regions through the first thermal foam heat isolation layer, and wherein the two belts are adapted to be fixed to an external structure so that the container main-body is fixed to the external structure; and a second thermal foam heat insulation layer (41, 42) provided on a front surface of the two belts, wherein each of the belt fitting regions, the two belts and the second thermal foam heat insulation layer (41, 42) provided only on the front surface of the two belts are band-shaped. a container main-body into which gas is filled; a first thermal foam heat insulation layer provided on an entire outer surface of the container main-body; belt fitting regions provided at portions of the outer surface of the container main-body; two belts, wherein back surfaces of the two belts are fitting surfaces in contact with the belt fitting regions through the first thermal foam heat isolation layer, and wherein the two belts are adapted to be fixed to an external structure so that the container main-body is fixed to the external structure; and a second thermal foam heat insulation layer (41, 42) provided on a front surface of the two belts,
A closing device of a building for closing an opening in a building, in particular a building door, comprising - a frame which at least sectionally delimits an opening in a building, - an adjusting wing which is adjustably arranged on the frame for opening or closing the opening in a building, - a lock which includes an electromotive driving device and at least one electromotively adjustable locking device, wherein in a locked position the lock locks the adjusting wing with the frame for closing the opening in a building and can be unlocked for shifting the adjusting wing relative to the frame, and - a manually actuatable handle arranged on the adjusting wing for actuating the lock, wherein the lock is arranged on a frame portion of the frame and in the locked position is lockingly in engagement with a closing element arranged on the adjusting wing, wherein the handle arranged on the adjusting wing is configured to act on the lock arranged on the frame for unlocking purposes upon manual actuation of the handle in order to release the locking engagement of the closing element with the lock, characterized in that the closing element is stationarily arranged on the adjusting wing, wherein via a coupling device the handle is coupled with an unlocking element arranged on the adjusting wing so as to be shiftable along an unlocking direction (A') such that upon actuation of the handle the unlocking element is shifted in the unlocking direction (A') and the at least one locking device of the lock thereby is actuated for unlocking purposes. - a frame which at least sectionally delimits an opening in a building, - an adjusting wing which is adjustably arranged on the frame for opening or closing the opening in a building, - a lock which includes an electromotive driving device and at least one electromotively adjustable locking device, wherein in a locked position the lock locks the adjusting wing with the frame for closing the opening in a building and can be unlocked for shifting the adjusting wing relative to the frame, and - a manually actuatable handle arranged on the adjusting wing for actuating the lock,
Device for inspecting the dimensions of a cylindrical tubular element, namely a sheath, in particular a sheath of a rod of a control cluster for a nuclear reactor core, characterised in that it comprises first ultra-sound means for transmitting-receiving a first ultra-sound wave along a first path having an incident part perpendicular to a reference axis of the device coinciding with the axis of revolution of the cylindrical tubular element and second ultra-sound means for transmitting-receiving a second ultra-sound wave along a second path having an incident part perpendicular to the reference axis and aligned with the incident part of the first path, the propagation directions of the first and second waves being opposite along the incident parts (34, 40), the first and second ultra-sound means respectively comprising first and second ultra-sound probes, the device comprising means for processing electric signals common to the two probes (20, 22), and the device further comprising means for differentiating the propagation times of the first and second waves respectively between each of the first and second probes and said reference axis so that the propagation time of the first ultra-sound wave along the first path is longer than the propagation time of the second wave along the second path in order to prevent electric signals transmitted by the probes (20, 22) to said means for processing electric signals from being superimposed.
Machine for picking up and treating arable soil in particular containing stones, clods or similar solids, comprising a separating device which has a frame or similar mounting and which forms, together with respective separating rollers (6, 6'), screen belts or similar sorting assemblies arranged behind one another in the operating direction, a separating section (S, S') for the picked up arable soil, which is processed to form even embankment soil that is largely free of stones and clods and in the process the solids are separated out, characterised in that the arable soil (B; B', B") can already be broken up in the region upstream of the separating section of the separating device, the separating device comprising a picking up apparatus (9, 9') that picks up and breaks up the arable soil, and said apparatus being provided with at least one loosening tool that can be driven in order to pick up and/or break up the soil.
A self-ballasted lamp including: a substrate having one side surface on which at least one light emitting element is provided; a heat radiating body to which the other side surface of the substrate is attached; a globe which covers the substrate and is mounted on the heat radiating body; a power supply circuit and a connection cap for connecting the lamp to an external power supply; and characterised by an air-cooling unit which is arranged to ventilate the heat radiation body, and characterised in that the heat radiating body includes a housing for the air-cooling unit and a drive circuit (75,85) is provided for the air-cooling unit, the drive circuit (75,85) being arranged on the said one side of the substrate on which said at least one light emitting element is provided. a substrate having one side surface on which at least one light emitting element is provided; a heat radiating body to which the other side surface of the substrate is attached; a globe which covers the substrate and is mounted on the heat radiating body; a power supply circuit and a connection cap for connecting the lamp to an external power supply; and characterised by an air-cooling unit which is arranged to ventilate the heat radiation body, and characterised in that the heat radiating body includes a housing for the air-cooling unit and a drive circuit (75,85) is provided for the air-cooling unit, the drive circuit (75,85) being arranged on the said one side of the substrate on which said at least one light emitting element is provided.
A method for ensuring, at an operation platform, a First-Come-First-Read (FCFR) principle in a Radio Frequency Identification (RFID) system, wherein said RFID system includes one or more reader/writers and a group of tags, and each of said tags is attached to a workpiece on a conveyor belt, characterized in that the method includes the following steps: in multiple reading cycles, said reader/writers read at least two tags from said group of tags, capture the sequence of received signal strength indications resulting from the multiple reading cycles as envelopes of said tags, and store the received signal strength indication envelope of one of the tags as a template; a correlation match between the received signal strength indication envelopes of said tags and said template is performed to obtain the time interval between the received signal strength indication envelopes of said tags and said template when the correlation value is the maximum, wherein one time in said template is taken as a standard time to obtain the time of said tags passing said reader/writers based on said standard time and said time interval, and calculating, based on said time intervals and the distance between an antenna of the RFID system and the operation platform, the arrival time for each workpiece at the operation platform for ensuring FCFR.. in multiple reading cycles, said reader/writers read at least two tags from said group of tags, capture the sequence of received signal strength indications resulting from the multiple reading cycles as envelopes of said tags, and store the received signal strength indication envelope of one of the tags as a template; a correlation match between the received signal strength indication envelopes of said tags and said template is performed to obtain the time interval between the received signal strength indication envelopes of said tags and said template when the correlation value is the maximum, wherein one time in said template is taken as a standard time to obtain the time of said tags passing said reader/writers based on said standard time and said time interval, and calculating, based on said time intervals and the distance between an antenna of the RFID system and the operation platform, the arrival time for each workpiece at the operation platform for ensuring FCFR..