mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing uplink transmission in ultra-reliable low latency communication, URLLC, the method performed by a user equipment (720, 805 - 855) and comprising: receiving (S605), from a base station , first configuration information for dynamic grant-free uplink transmission, wherein the first configuration information is configured, to the user equipment, separately from second configuration information for dynamic grant-based uplink transmission, and a first identifier of the user equipment (720, 805 - 855) for the dynamic grant-free uplink transmission is configured separately from a second identifier of the user equipment (720, 805 - 855) for the dynamic grant-based uplink transmission ; and transmitting (S610), to the base station , uplink data via PUSCH based on the first configuration information, wherein the dynamic grant-free uplink transmission is semi-statically configured and the dynamic grant-based uplink transmission is dynamically configured, and wherein the first configuration information is received through a higher layer signaling, and comprises information related to repetition transmission of the uplink data and information related to resource for transmission of the uplink data. receiving (S605), from a base station , first configuration information for dynamic grant-free uplink transmission, wherein the first configuration information is configured, to the user equipment, separately from second configuration information for dynamic grant-based uplink transmission, and a first identifier of the user equipment (720, 805 - 855) for the dynamic grant-free uplink transmission is configured separately from a second identifier of the user equipment (720, 805 - 855) for the dynamic grant-based uplink transmission ; and transmitting (S610), to the base station , uplink data via PUSCH based on the first configuration information, wherein the dynamic grant-free uplink transmission is semi-statically configured and the dynamic grant-based uplink transmission is dynamically configured, and wherein the first configuration information is received through a higher layer signaling, and comprises information related to repetition transmission of the uplink data and information related to resource for transmission of the uplink data.
A wireless communication method, comprising: transmitting , by a terminal device, uplink data to a network device using at least one of multiple uplink resources; wherein the multiple uplink resources are indicated by the network device in a dynamic scheduling instruction; characterized in that the dynamic scheduling instruction comprises: an offset of one of the multiple uplink resources relative to a specific resource and an offset between the multiple uplink resources; and the method further comprises: determining, by the terminal device, at least part of the multiple uplink resources based on the offset of the one uplink resource relative to the specific resource and the offset between the multiple uplink resources, and a resource position of the specific resource; wherein the specific resource is one of periodic uplink resources indicated by Radio Resource Control, RRC, signaling. transmitting , by a terminal device, uplink data to a network device using at least one of multiple uplink resources; wherein the multiple uplink resources are indicated by the network device in a dynamic scheduling instruction; characterized in that the dynamic scheduling instruction comprises: an offset of one of the multiple uplink resources relative to a specific resource and an offset between the multiple uplink resources; and the method further comprises: determining, by the terminal device, at least part of the multiple uplink resources based on the offset of the one uplink resource relative to the specific resource and the offset between the multiple uplink resources, and a resource position of the specific resource; wherein the specific resource is one of periodic uplink resources indicated by Radio Resource Control, RRC, signaling. determining, by the terminal device, at least part of the multiple uplink resources based on the offset of the one uplink resource relative to the specific resource and the offset between the multiple uplink resources, and a resource position of the specific resource; wherein the specific resource is one of periodic uplink resources indicated by Radio Resource Control, RRC, signaling.
A system for measuring a level of dry bulk material in a container , said system comprising: a columnar device adapted to be supported vertically within the container ; and a load cell associated with said columnar device , said load cell being arranged to measure a weight of the dry bulk material within the columnar device , characterized in that said columnar device has a closed lower end and at least one opening through a sidewall thereof for allowing dry bulk material within the container to flow into and out of the columnar device. a columnar device adapted to be supported vertically within the container ; and a load cell associated with said columnar device , said load cell being arranged to measure a weight of the dry bulk material within the columnar device , characterized in that said columnar device has a closed lower end and at least one opening through a sidewall thereof for allowing dry bulk material within the container to flow into and out of the columnar device.
A method comprising: determining a route from a network version starting segment to a network version target segment based on map data of a network version of a digital map, the route comprising a list of route segments to be traveled from the network version starting segment to the network version target segment , the route determined by a network apparatus comprising at least one processor , a memory storing the network version of the digital map, and a communication interface ; accessing map version agnostic information defining map information that is not expected to change between a first version of the digital map and a second version of the digital map, the map version agnostic information identifying each segment of the list of route segments from the network version of the digital map; generating a map version agnostic identifier for each route segment of the list of route segments based on the accessed map version agnostic information; coding the map version agnostic identifier for each route segment using at least one coding function to generate at least one coded map version agnostic identifier for each route segment; generating a bloom filter based on the coded map version agnostic identifiers for each route segment; and providing the bloom filter such that a mobile apparatus receives the bloom filter. determining a route from a network version starting segment to a network version target segment based on map data of a network version of a digital map, the route comprising a list of route segments to be traveled from the network version starting segment to the network version target segment , the route determined by a network apparatus comprising at least one processor , a memory storing the network version of the digital map, and a communication interface ; accessing map version agnostic information defining map information that is not expected to change between a first version of the digital map and a second version of the digital map, the map version agnostic information identifying each segment of the list of route segments from the network version of the digital map; generating a map version agnostic identifier for each route segment of the list of route segments based on the accessed map version agnostic information; coding the map version agnostic identifier for each route segment using at least one coding function to generate at least one coded map version agnostic identifier for each route segment; generating a bloom filter based on the coded map version agnostic identifiers for each route segment; and providing the bloom filter such that a mobile apparatus receives the bloom filter.
Method for filling vehicle tires with pressurized air comprising the following steps: A) a1) capturing an image of a tire to be filled, in particular the side wall of a tire, a2) determining the type of the tire of the captured tire image by means of an image recognition software, a3) capturing the image of a vehicle or part of a vehicle having the tire to be filled, in particular the number plate of the vehicle or FIN code or a bar code/ QR code or other vehicle identification means and determining the vehicle type by means of an image recognition software; and, preferably, B) b1) capturing an image of a tire pressure table provided with the vehicle, b2) reading out tire pressure data of the table by means of a text recognition software; and C) c1) determining a correct tire pressure on the basis of the determined tire type and the determined vehicle type and, preferably, on the basis of the data of the tire pressure table, c2) providing the correct tire pressure data to a display and/or a tire pressure filling system. A) a1) capturing an image of a tire to be filled, in particular the side wall of a tire, a2) determining the type of the tire of the captured tire image by means of an image recognition software, a3) capturing the image of a vehicle or part of a vehicle having the tire to be filled, in particular the number plate of the vehicle or FIN code or a bar code/ QR code or other vehicle identification means and determining the vehicle type by means of an image recognition software; and, preferably, a1) capturing an image of a tire to be filled, in particular the side wall of a tire, a2) determining the type of the tire of the captured tire image by means of an image recognition software, a3) capturing the image of a vehicle or part of a vehicle having the tire to be filled, in particular the number plate of the vehicle or FIN code or a bar code/ QR code or other vehicle identification means and determining the vehicle type by means of an image recognition software; B) b1) capturing an image of a tire pressure table provided with the vehicle, b2) reading out tire pressure data of the table by means of a text recognition software; and b1) capturing an image of a tire pressure table provided with the vehicle, b2) reading out tire pressure data of the table by means of a text recognition software; C) c1) determining a correct tire pressure on the basis of the determined tire type and the determined vehicle type and, preferably, on the basis of the data of the tire pressure table, c2) providing the correct tire pressure data to a display and/or a tire pressure filling system. c1) determining a correct tire pressure on the basis of the determined tire type and the determined vehicle type and, preferably, on the basis of the data of the tire pressure table, c2) providing the correct tire pressure data to a display and/or a tire pressure filling system.
Lighting system comprising at least one illuminant having one or a plurality of individual light sources and two magnetically adhering electrical connections of opposite magnetic polarity, and furthermore comprising at least one plane support , having a plurality of pairs of magnetic contacts (35-40), each pair of which has a contact associated with a first group of contacts and a contact associated with a second group of contacts , between which an electrical potential is able to be applied, wherein - the contacts of the first group and the contacts of the second group have an opposite magnetic polarity and are arranged next to one another on the carrier , - each of the contacts (35-40) is configured as a magnetic attachment area for attaching a connection of an illuminant having a reverse magnetic polarity with respect thereto, characterized in that - the support has at least two sets of pairs of contacts (35-40) provided for different types of illuminants , with differently shaped contacts (35-40) between the sets, - a lateral distance between contacts (35-40) of a respective pair of contacts (35-40) of a common set of pairs is smaller than a distance between these contacts (35-40) and identically shaped contacts (35-40) of a different set of pairs, and - each set is independently controllable. - the contacts of the first group and the contacts of the second group have an opposite magnetic polarity and are arranged next to one another on the carrier , - each of the contacts (35-40) is configured as a magnetic attachment area for attaching a connection of an illuminant having a reverse magnetic polarity with respect thereto, - the support has at least two sets of pairs of contacts (35-40) provided for different types of illuminants , with differently shaped contacts (35-40) between the sets, - a lateral distance between contacts (35-40) of a respective pair of contacts (35-40) of a common set of pairs is smaller than a distance between these contacts (35-40) and identically shaped contacts (35-40) of a different set of pairs, and - each set is independently controllable.
A method for paging, comprising: sending, by a terminal device, a message requesting to resume a radio resource control (RRC) connected state to an access network device, wherein the message requesting to resume the RRC connected state is used for indicating a location update of the terminal device; sending, by the terminal device, movement information of the terminal device to the access network device ; and receiving, by the terminal device, a target paging area where the access network device initiates paging to the terminal device , wherein the target paging area is determined by the access network device based on the movement information; the method is characterised in that the movement information comprises time information; wherein the time information is used for indicating information of absolute time when the terminal device camps on each serving cell during a movement process of the terminal device in a previous RRC inactive state. sending, by a terminal device, a message requesting to resume a radio resource control (RRC) connected state to an access network device, wherein the message requesting to resume the RRC connected state is used for indicating a location update of the terminal device; sending, by the terminal device, movement information of the terminal device to the access network device ; and receiving, by the terminal device, a target paging area where the access network device initiates paging to the terminal device , wherein the target paging area is determined by the access network device based on the movement information; the method is characterised in that the movement information comprises time information; wherein the time information is used for indicating information of absolute time when the terminal device camps on each serving cell during a movement process of the terminal device in a previous RRC inactive state.
A method comprising: receiving, by a base station central unit control plane, CU-CP, from a base station distributed unit, DU, a radio resource control, RRC, request message for a small data transmission, SDT, procedure of a wireless device; receiving, by the base station CU-CP from the base station DU, an indication message indicating completion of the SDT procedure; and sending, by the base station CU-CP to the wireless device via the base station DU, a RRC release message based on the indication message. receiving, by a base station central unit control plane, CU-CP, from a base station distributed unit, DU, a radio resource control, RRC, request message for a small data transmission, SDT, procedure of a wireless device; receiving, by the base station CU-CP from the base station DU, an indication message indicating completion of the SDT procedure; and sending, by the base station CU-CP to the wireless device via the base station DU, a RRC release message based on the indication message.
A combination medicament for use in the treatment of upper respiratory mucosal congestion in tablet, capsule, powder or liquid form, characterised in that the medicament has phenylephrine hydrochloride and paracetamol in proportions suitable for, and the medicament is for, providing an adult with a) 4 mg - 7.5 mg phenylephrine hydrochloride in combination with 950 mg - 1000 mg paracetamol, or b) 5 mg - 7.5 mg phenylephrine hydrochloride in combination with 600 mg - 700 mg paracetamol. a) 4 mg - 7.5 mg phenylephrine hydrochloride in combination with 950 mg - 1000 mg paracetamol, or b) 5 mg - 7.5 mg phenylephrine hydrochloride in combination with 600 mg - 700 mg paracetamol.
A shaft bearing device for a pump , comprising an antifriction bearing , which can be connected to an axially displaceable pump shaft , wherein a spring is arranged at the antifriction bearing in such a way, that a spring force (F) can be transmitted to the antifriction bearing by means of the spring in a mounting condition of the shaft bearing device in such a way, that a lifting element attached to the pump shaft and a corresponding counter element are separated from each other in a starting state and/or in a shutdown state of the pump , characterized in that the antifriction bearing is a radial bearing.
A controller , comprising: a microprocessor configured to operate under the control of a set of instructions recorded on a first machine-readable medium, said microprocessor when operating under said set of instructions performing the following steps: controlling the operation of at least one of a source of carbon dioxide , a gas flow subsystem, a temperature control subsystem, and a humidity control subsystem; instituting a flow of a process gas containing carbon dioxide so as to contact a material to be cured by reaction with said carbon dioxide in said process gas; monitoring at least one parameter selected from the group of parameters consisting of an elapsed time from said instituting of said flow, a carbon dioxide concentration, a relative humidity, a flow rate, a temperature, and a pressure of said process gas as said process gas is being provided; characterised by performing at least one of recording at least one of said monitored parameters, or displaying said at least one of said monitored parameters to a user; and determining a state of cure of said material to be cured by reaction with said carbon dioxide. controlling the operation of at least one of a source of carbon dioxide , a gas flow subsystem, a temperature control subsystem, and a humidity control subsystem; instituting a flow of a process gas containing carbon dioxide so as to contact a material to be cured by reaction with said carbon dioxide in said process gas; monitoring at least one parameter selected from the group of parameters consisting of an elapsed time from said instituting of said flow, a carbon dioxide concentration, a relative humidity, a flow rate, a temperature, and a pressure of said process gas as said process gas is being provided; characterised by performing at least one of recording at least one of said monitored parameters, or displaying said at least one of said monitored parameters to a user; and determining a state of cure of said material to be cured by reaction with said carbon dioxide.
A method of forming a carbon-carbon composite component, the method comprising: depositing an initial carbon material into a porous carbon fiber preform using chemical vapor deposition (CVD) or chemical vapor infiltration (CVI) to form a rigidized porous carbon fiber preform; infusing the rigidized porous carbon fiber preform with an isotropic resin; pyrolyzing the infused isotropic resin to form carbon within pores of the rigidized porous carbon fiber preform such that the carbon formed within the pores includes at least 80% isotropic carbon; and after the infusing and the pyrolyzing, densifying the rigidized porous carbon fiber preform such that the isotropic carbon within the rigidized porous carbon fiber preform is encapsulated with a graphitizable carbon to form the carbon-carbon composite component. depositing an initial carbon material into a porous carbon fiber preform using chemical vapor deposition (CVD) or chemical vapor infiltration (CVI) to form a rigidized porous carbon fiber preform; infusing the rigidized porous carbon fiber preform with an isotropic resin; pyrolyzing the infused isotropic resin to form carbon within pores of the rigidized porous carbon fiber preform such that the carbon formed within the pores includes at least 80% isotropic carbon; and after the infusing and the pyrolyzing, densifying the rigidized porous carbon fiber preform such that the isotropic carbon within the rigidized porous carbon fiber preform is encapsulated with a graphitizable carbon to form the carbon-carbon composite component.
A spray apparatus comprising: a body defining a reservoir holding contents comprising diatomaceous earth and a compressed propellant for propelling the diatomaceous earth from the reservoir, wherein the diatomaceous earth comprises remains of pennate diatoms; and an actuator for controllably releasing the propellant and the diatomaceous earth propelled by the propellant from the reservoir. a body defining a reservoir holding contents comprising diatomaceous earth and a compressed propellant for propelling the diatomaceous earth from the reservoir, wherein the diatomaceous earth comprises remains of pennate diatoms; and an actuator for controllably releasing the propellant and the diatomaceous earth propelled by the propellant from the reservoir.
Method for engraving an intaglio gravure printing plate with a laser, wherein a depth profile of the intaglio gravure printing plate is produced by engraving several engraving layers by means of the laser, wherein a target engraving layer is determined for each of the engraving layers on the basis of a predetermined target depth profile , characterized in that flank angles are determined for edges of the regions of the target engraving layers to be engraved, and for reducing the deviation of a target depth profile from the actually engraved depth profile, a correction offset is determined for each target engraving layer and each flank angle in said target engraving layer , in that the regions to be engraved of each target engraving layer are adapted at the edges by means of the respective correction offset in order to produce control engraving layers , and in that the control engraving layers are used to control the laser when engraving the engraving layers .
A co-injection hot runner nozzle comprising: an inner melt flow channel ; an annular outer melt flow channel that surrounds the inner melt flow channel, the inner and outer melt flow channels having a first common source; an annular intermediate melt flow channel , disposed between the inner and outer melt flow channels, characterized in that the annular intermediate flow channel is at least partly defined by a plurality of spiral grooves , each spiral groove having a respective inlet and defining a helical flow path, with lands between adjacent spiral grooves that increase in clearance in a downstream direction, wherein an annular axial flow path is defined over the lands; and a plurality of feeder channels , have a second common source, for supplying melt to the plurality of inlets of the spiral grooves. an inner melt flow channel ; an annular outer melt flow channel that surrounds the inner melt flow channel, the inner and outer melt flow channels having a first common source; an annular intermediate melt flow channel , disposed between the inner and outer melt flow channels, characterized in that the annular intermediate flow channel is at least partly defined by a plurality of spiral grooves , each spiral groove having a respective inlet and defining a helical flow path, with lands between adjacent spiral grooves that increase in clearance in a downstream direction, wherein an annular axial flow path is defined over the lands; and a plurality of feeder channels , have a second common source, for supplying melt to the plurality of inlets of the spiral grooves.