mhurhangee/patent-ind-claim-en huggingface dataset:
A data distribution method, comprising: obtaining , by a first circuit, a first data stream; distributing , by the first circuit, the first data stream to N1 second circuits of M second circuits in a physical layer circuit, PHY, wherein M is a positive integer and N1 is a positive integer less than M; and processing , by the N1 second circuits, the first data stream to obtain N1 first code streams, wherein the N1 second circuits are in a one-to-one correspondence with the N1 first code streams; wherein: the first circuit comprises a receiving circuit, the first data stream is a first data block stream, and each second circuit of the M second circuits comprises a physical layer encoding circuit, a scrambling circuit, and an alignment marker insertion circuit; or, the first circuit comprises a physical layer encoding circuit, the first data stream is a data stream that is obtained after physical layer encoding is performed on a first data block stream by the physical layer encoding circuit, each second circuit of the M second circuits comprises a scrambling circuit and an alignment marker insertion circuit. obtaining , by a first circuit, a first data stream; distributing , by the first circuit, the first data stream to N1 second circuits of M second circuits in a physical layer circuit, PHY, wherein M is a positive integer and N1 is a positive integer less than M; and processing , by the N1 second circuits, the first data stream to obtain N1 first code streams, wherein the N1 second circuits are in a one-to-one correspondence with the N1 first code streams; wherein: the first circuit comprises a receiving circuit, the first data stream is a first data block stream, and each second circuit of the M second circuits comprises a physical layer encoding circuit, a scrambling circuit, and an alignment marker insertion circuit; or, the first circuit comprises a physical layer encoding circuit, the first data stream is a data stream that is obtained after physical layer encoding is performed on a first data block stream by the physical layer encoding circuit, each second circuit of the M second circuits comprises a scrambling circuit and an alignment marker insertion circuit. the first circuit comprises a receiving circuit, the first data stream is a first data block stream, and each second circuit of the M second circuits comprises a physical layer encoding circuit, a scrambling circuit, and an alignment marker insertion circuit; or, the first circuit comprises a physical layer encoding circuit, the first data stream is a data stream that is obtained after physical layer encoding is performed on a first data block stream by the physical layer encoding circuit, each second circuit of the M second circuits comprises a scrambling circuit and an alignment marker insertion circuit.
A fastening member (1; 5; 6) that fastens members, the fastening member being characterized by comprising: a first alloy section made of an A6056 aluminum alloy, the first alloy section being provided in a portion in contact with at least one of the members; and a second alloy section made of an A2024 or A2618 aluminum alloy, the second alloy section being bonded to the first alloy section. a first alloy section made of an A6056 aluminum alloy, the first alloy section being provided in a portion in contact with at least one of the members; and a second alloy section made of an A2024 or A2618 aluminum alloy, the second alloy section being bonded to the first alloy section.
An oriented electrical steel sheet having an insulation coating formed on the surface thereof, the oriented electrical steel sheet comprising: an oriented electrical steel sheet comprising 0.005 to 0.05 wt% of any one element selected from boron (B), vanadium (V), or a combination thereof, 2.6 to 4.3 wt% of silicon (Si), 0.020 to 0.040 wt% of aluminum (Al), and 0.01 to 0.20 wt% of manganese (Mn), wherein the balance is composed of Fe and other inevitable impurities; and an insulation coating formed on the surface of the oriented electrical steel sheet, wherein the insulation coating comprises: 0.1 to 7 wt% of hollow nanoparticles; 0.1 to 5 wt% of ceramic nanofibers; 0.1 to 5 wt% of mesoporous nanoparticles; 30 to 60 wt% of colloidal silica nanoparticles; and 30 to 60 wt% of metal phosphate. an oriented electrical steel sheet comprising 0.005 to 0.05 wt% of any one element selected from boron (B), vanadium (V), or a combination thereof, 2.6 to 4.3 wt% of silicon (Si), 0.020 to 0.040 wt% of aluminum (Al), and 0.01 to 0.20 wt% of manganese (Mn), wherein the balance is composed of Fe and other inevitable impurities; and an insulation coating formed on the surface of the oriented electrical steel sheet, wherein the insulation coating comprises: 0.1 to 7 wt% of hollow nanoparticles; 0.1 to 5 wt% of ceramic nanofibers; 0.1 to 5 wt% of mesoporous nanoparticles; 30 to 60 wt% of colloidal silica nanoparticles; and 30 to 60 wt% of metal phosphate. 0.1 to 7 wt% of hollow nanoparticles; 0.1 to 5 wt% of ceramic nanofibers; 0.1 to 5 wt% of mesoporous nanoparticles; 30 to 60 wt% of colloidal silica nanoparticles; and 30 to 60 wt% of metal phosphate.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: receiving (S1107, S1301) an uplink grant from a base station when there is no uplink data to be generated, wherein the uplink grant is valid during a specific time duration; transmitting (S1109, S1303) data using the uplink grant when the data is generated during the specific time duration; and discarding (S1111, S1305) the uplink grant when the specific time duration is passed when the data has not been generated during the specific time duration, wherein the uplink grant includes an indication that the uplink grant is for a data which the UE expects to be generated. receiving (S1107, S1301) an uplink grant from a base station when there is no uplink data to be generated, wherein the uplink grant is valid during a specific time duration; transmitting (S1109, S1303) data using the uplink grant when the data is generated during the specific time duration; and discarding (S1111, S1305) the uplink grant when the specific time duration is passed when the data has not been generated during the specific time duration, wherein the uplink grant includes an indication that the uplink grant is for a data which the UE expects to be generated.
A reference signal sending method, comprising: notifying a user equipment of reference signal resource configuration, where the reference signal resource configuration comprises a reference signal configuration indicative of resource elements occupied by a reference signal in a physical resource block pair, and the resource elements configured by the reference signal configuration comprise N resource elements in M resource element groups, wherein M is an integer greater than or equal to 2, N is a quantity of ports, and N is an integer, wherein each of the M resource element groups comprises eight resource elements; and sending a a reference signal to the user equipment according to the reference signal resource configuration. notifying a user equipment of reference signal resource configuration, where the reference signal resource configuration comprises a reference signal configuration indicative of resource elements occupied by a reference signal in a physical resource block pair, and the resource elements configured by the reference signal configuration comprise N resource elements in M resource element groups, wherein M is an integer greater than or equal to 2, N is a quantity of ports, and N is an integer, wherein each of the M resource element groups comprises eight resource elements; and sending a a reference signal to the user equipment according to the reference signal resource configuration.
Dosing device , comprising a rod element having a stem with a longitudinal axis and a first thread arrangement , and a shell having a second thread arrangement , wherein, the first thread arrangement of the rod element or the second thread arrangement of the shell comprises a thread , the first thread arrangement of the rod element and the second thread arrangement of the shell engage, the rod element is movable along the longitudinal axis of its stem by rotating the shell and the rod element relative to each other causing the first thread arrangement of the rod element and the second thread arrangement of the shell to travel along each other, a dosage chamber is formed by moving the rod element along the longitudinal axis of its stem , and the volume of the dosage chamber is adapted by moving the rod element along the longitudinal axis of its stem , characterized in that an inclination angle (α, β) of the thread of the first thread arrangement of the rod element or the second thread arrangement of the shell varies along the thread of the first thread arrangement of the rod element or the second thread arrangement of the shell . a rod element having a stem with a longitudinal axis and a first thread arrangement , and a shell having a second thread arrangement , wherein, the first thread arrangement of the rod element or the second thread arrangement of the shell comprises a thread , the first thread arrangement of the rod element and the second thread arrangement of the shell engage, the rod element is movable along the longitudinal axis of its stem by rotating the shell and the rod element relative to each other causing the first thread arrangement of the rod element and the second thread arrangement of the shell to travel along each other, a dosage chamber is formed by moving the rod element along the longitudinal axis of its stem , and the volume of the dosage chamber is adapted by moving the rod element along the longitudinal axis of its stem , characterized in that the first thread arrangement of the rod element or the second thread arrangement of the shell comprises a thread , the first thread arrangement of the rod element and the second thread arrangement of the shell engage, the rod element is movable along the longitudinal axis of its stem by rotating the shell and the rod element relative to each other causing the first thread arrangement of the rod element and the second thread arrangement of the shell to travel along each other, a dosage chamber is formed by moving the rod element along the longitudinal axis of its stem , and the volume of the dosage chamber is adapted by moving the rod element along the longitudinal axis of its stem , an inclination angle (α, β) of the thread of the first thread arrangement of the rod element or the second thread arrangement of the shell varies along the thread of the first thread arrangement of the rod element or the second thread arrangement of the shell .
Use of an adhesive system comprising an adhesive with a flame retardant for bonding composite construction films to a substrate or for bonding composite construction films in the overlapping edge areas, characterized in that the adhesive has a flame retardant, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, that the adhesive contains such a flame retardant and/or a flame retardant in such an amount that the adhesive and a composite construction films bonded with the adhesive at the bonding point at least comply with fire class E according to EN 13501-1, and that an adhesive bond of the adhesive has such a mechanical stability that in a T-peel test according to DIN 11339 at a constant test speed of 100 mm/min the average values achieved are at least 2.5 N/cm and the maximum values achieved are at least 6.5 N/cm and that at a constant test speed of 10 mm/min the average values achieved are at least 1.5 N/cm and the maximum values achieved are at least 2.5 N/cm. the adhesive has a flame retardant, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, that the adhesive contains such a flame retardant and/or a flame retardant in such an amount that the adhesive and a composite construction films bonded with the adhesive at the bonding point at least comply with fire class E according to EN 13501-1, and that an adhesive bond of the adhesive has such a mechanical stability that in a T-peel test according to DIN 11339 at a constant test speed of 100 mm/min the average values achieved are at least 2.5 N/cm and the maximum values achieved are at least 6.5 N/cm and that at a constant test speed of 10 mm/min the average values achieved are at least 1.5 N/cm and the maximum values achieved are at least 2.5 N/cm.
A method for analyzing power quality events in an electrical system, comprising: processing electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices characterized in that the step of processing the electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices is used to generate or update a plurality of dynamic tolerance curves, wherein each of the plurality of dynamic tolerance curves characterizes a response characteristic of the electrical system at a respective metering point of a plurality of metering points in the electrical system; and that the method further comprises: selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads associated with the electrical system in response to the power quality events analyzed. processing electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices characterized in that the step of processing the electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices is used to generate or update a plurality of dynamic tolerance curves, wherein each of the plurality of dynamic tolerance curves characterizes a response characteristic of the electrical system at a respective metering point of a plurality of metering points in the electrical system; and that the method further comprises: selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads associated with the electrical system in response to the power quality events analyzed. selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads associated with the electrical system in response to the power quality events analyzed.
Device for returning dispensed objects to a carrier tape , - having a carrier tape on which self-adhesive objects are present; - having a dispensing edge by way of which the self-adhesive objects are releasable from the carrier tape ; - having at least one deflection roller by way of which the empty carrier tape is guided, - characterized in that - a receptacle unit by way of which the empty carrier tape is guided is present behind the at least one deflection roller in the running direction of the empty carrier tape ; - the receptacle unit is at least occasionally positioned in front of the dispensing edge in such a way that self-adhesive objects dispensed by the dispensing edge are able to be transferred directly or indirectly to the empty carrier tape . - having a carrier tape on which self-adhesive objects are present; - having a dispensing edge by way of which the self-adhesive objects are releasable from the carrier tape ; - having at least one deflection roller by way of which the empty carrier tape is guided, - characterized in that - a receptacle unit by way of which the empty carrier tape is guided is present behind the at least one deflection roller in the running direction of the empty carrier tape ; - the receptacle unit is at least occasionally positioned in front of the dispensing edge in such a way that self-adhesive objects dispensed by the dispensing edge are able to be transferred directly or indirectly to the empty carrier tape .
Container for an agricultural work machine , in particular for holding agricultural distribution material, having at least one covering means , in particular a lid, which is arranged or can be attached to the container and can be closed in a self-retaining manner by means of at least one quick-release fastener , preferably designed in the manner of a snap connection, characterized by at least one locking mechanism which is arranged at least partially rotatably and/or displaceably between the quick-release fastener and the covering means , in particular the lid, and which can be positioned between the quick-release fastener and the covering means , in particular the lid, in a clampable and/or blocking manner in order to lock the covering means , in particular the lid.
Electronic wrist or pocket watch (1,1',1"), comprising - a case , - display means for displaying a plurality of symbols, - processing means in signal communication with the display means , and configured for controlling said display means in a manner such that they will display a screen where at least one first symbol is selected among a plurality of available symbols, - a rotary crown (3,3',3") associated with the case, and motion detection means configured for detecting at least the rotary motion of said crown (3,3',3"), wherein said motion detection means are in signal communication with the processing means , and wherein said processing means are also configured for controlling the display means in a manner such that, when the crown (3,3',3") is turned, at least one other symbol, different from the first symbol, will be selected among the plurality of available symbols, characterized in that the crown (3',3") is also configured in a manner such that it can be moved along the axis of rotation of said crown (3',3"), so that it can be extracted from the case , wherein the motion detection means comprise a translation sensor in signal communication with the processing means , and configured for detecting the extraction of the crown (3',3") from the case , and wherein the processing means are also configured for activating an application associated with the selected symbol when the translation sensor detects the extraction of the crown (3',3") from the case . - a case , - display means for displaying a plurality of symbols, - processing means in signal communication with the display means , and configured for controlling said display means in a manner such that they will display a screen where at least one first symbol is selected among a plurality of available symbols, - a rotary crown (3,3',3") associated with the case, and motion detection means configured for detecting at least the rotary motion of said crown (3,3',3"), wherein said motion detection means are in signal communication with the processing means , and wherein said processing means are also configured for controlling the display means in a manner such that, when the crown (3,3',3") is turned, at least one other symbol, different from the first symbol, will be selected among the plurality of available symbols,
A method for vehicle identification, which method comprises the steps of: an ego vehicle detecting a communicating vehicle by means of wireless vehicle to vehicle communication; the ego vehicle detecting a vehicle by means of a sensor onboard the ego vehicle ; the ego vehicle sending an identification request to the communicating vehicle by means of wireless vehicle to vehicle communication, wherein the identification request instructs the communicating vehicle to perform an action; the ego vehicle determining whether or not the vehicle detected by the sensor performed said action based at least on data from said sensor ; and if the ego vehicle determines that the vehicle detected by the sensor performed said action, the ego vehicle determining that the communicating vehicle and the vehicle detected by the sensor are the same vehicle, characterized in that the method further comprises: the ego vehicle receiving information from the communicating vehicle by means of wireless vehicle to vehicle communication, said information indicating start time and end time of the performance of the action, and wherein determining whether or not the vehicle detected by the sensor performed said action is further based on data received from the communicating vehicle via wireless vehicle to vehicle communication, which received data is related to the action, and wherein the ego vehicle compares the received data with data from the sensor for determining whether or not the vehicle detected by the sensor performed said action. an ego vehicle detecting a communicating vehicle by means of wireless vehicle to vehicle communication; the ego vehicle detecting a vehicle by means of a sensor onboard the ego vehicle ; the ego vehicle sending an identification request to the communicating vehicle by means of wireless vehicle to vehicle communication, wherein the identification request instructs the communicating vehicle to perform an action; the ego vehicle determining whether or not the vehicle detected by the sensor performed said action based at least on data from said sensor ; and if the ego vehicle determines that the vehicle detected by the sensor performed said action, the ego vehicle determining that the communicating vehicle and the vehicle detected by the sensor are the same vehicle, characterized in that the method further comprises: the ego vehicle receiving information from the communicating vehicle by means of wireless vehicle to vehicle communication, said information indicating start time and end time of the performance of the action, and wherein determining whether or not the vehicle detected by the sensor performed said action is further based on data received from the communicating vehicle via wireless vehicle to vehicle communication, which received data is related to the action, and wherein the ego vehicle compares the received data with data from the sensor for determining whether or not the vehicle detected by the sensor performed said action.
A soap bar comprising (i) 18 to 75 wt% soap; (ii) 1.0 to 15.0 wt% sodium alumino silicate gel; (iii) 15 to 45 wt%, preferably 22 to 40 wt% water; wherein the SiO 2 /Al 2 O 3 mole ratio of the sodium alumino silicate gel is less than 5.0. (i) 18 to 75 wt% soap; (ii) 1.0 to 15.0 wt% sodium alumino silicate gel; (iii) 15 to 45 wt%, preferably 22 to 40 wt% water; wherein the SiO 2 /Al 2 O 3 mole ratio of the sodium alumino silicate gel is less than 5.0.