mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , the UE comprising: a transceiver ; and a processing circuitry configured to: receive, via the transceiver from a base station, discovery reference signal, DRS, configuration information configuring a DRS occasion , receive, via the transceiver from at least one transmission point, a primary synchronization signal, PSS and a secondary synchronization signal, SSS, identify a physical cell identity, PCID, from the PSS and SSS, perform, in a case that the DRS configuration information includes the PCID and CSI-RS configuration information associated with the PCID, measurement on a channel state information reference signal, CSI-RS, using the CSI-RS configuration information based on an assumption that the CSI-RS is quasi co-located with the PSS, the SSS and a cell-specific reference signal, CRS, corresponding to the PCID, and transmit, via the transceiver to the base station, a report on the measurement. a transceiver ; and a processing circuitry configured to: receive, via the transceiver from a base station, discovery reference signal, DRS, configuration information configuring a DRS occasion , receive, via the transceiver from at least one transmission point, a primary synchronization signal, PSS and a secondary synchronization signal, SSS, identify a physical cell identity, PCID, from the PSS and SSS, perform, in a case that the DRS configuration information includes the PCID and CSI-RS configuration information associated with the PCID, measurement on a channel state information reference signal, CSI-RS, using the CSI-RS configuration information based on an assumption that the CSI-RS is quasi co-located with the PSS, the SSS and a cell-specific reference signal, CRS, corresponding to the PCID, and transmit, via the transceiver to the base station, a report on the measurement. receive, via the transceiver from a base station, discovery reference signal, DRS, configuration information configuring a DRS occasion , receive, via the transceiver from at least one transmission point, a primary synchronization signal, PSS and a secondary synchronization signal, SSS, identify a physical cell identity, PCID, from the PSS and SSS, perform, in a case that the DRS configuration information includes the PCID and CSI-RS configuration information associated with the PCID, measurement on a channel state information reference signal, CSI-RS, using the CSI-RS configuration information based on an assumption that the CSI-RS is quasi co-located with the PSS, the SSS and a cell-specific reference signal, CRS, corresponding to the PCID, and transmit, via the transceiver to the base station, a report on the measurement.
A method of controlling a robot , the method comprising the steps of: determining (S30) an actual speed ( q̇ ist ) of the robot; determining (S20) a target speed ( q̇ soll ); determining (S30) a damping drive parameter ( τ d ) on the basis of a difference between the target speed and the actual speed; and controlling (S40) a drive arrangement comprising at least one drive (A 1 , ... , A 6 ) of the robot on the basis of the damping drive parameter; wherein the target speed is determined on the basis of a predetermined maximum speed ( q̇ max ), a predetermined minimum speed ( q̇ min ) and / or a distance ( dist ) of the robot to at least one predetermined boundary (q max , q min characterised in that a compliance drive parameter is determined on the basis of an impedance or admittance control which provides a spring damper characteristic or a mass spring damper characteristic of the robot, and the drive arrangement is controlled on the basis of a sum of the damping drive parameter and the compliance drive parameter (S40); and in that the damping drive parameter is determined in such a way that it is equal to zero if the target speed exceeds the actual speed in terms of its absolute value, and the damping drive parameter is determined in such a way that, in terms of its absolute value, it is proportional to the difference between the target speed and the actual speed if the actual speed exceeds the target speed in terms of its absolute value. determining (S30) an actual speed ( q̇ ist ) of the robot; determining (S20) a target speed ( q̇ soll ); determining (S30) a damping drive parameter ( τ d ) on the basis of a difference between the target speed and the actual speed; and controlling (S40) a drive arrangement comprising at least one drive (A 1 , ... , A 6 ) of the robot on the basis of the damping drive parameter; wherein the target speed is determined on the basis of a predetermined maximum speed ( q̇ max ), a predetermined minimum speed ( q̇ min ) and / or a distance ( dist ) of the robot to at least one predetermined boundary (q max , q min characterised in that a compliance drive parameter is determined on the basis of an impedance or admittance control which provides a spring damper characteristic or a mass spring damper characteristic of the robot, and the drive arrangement is controlled on the basis of a sum of the damping drive parameter and the compliance drive parameter (S40); and in that the damping drive parameter is determined in such a way that it is equal to zero if the target speed exceeds the actual speed in terms of its absolute value, and the damping drive parameter is determined in such a way that, in terms of its absolute value, it is proportional to the difference between the target speed and the actual speed if the actual speed exceeds the target speed in terms of its absolute value.
Method for producing a shoe , in particular a sports shoe, comprising the steps: a) Measuring at least one individual characteristic of the foot of a person and/or one walking characteristic of the person by means of a measuring device ; b) Determining the progression of a material characteristic and/or mechanical characteristic of at least one sole or one sole part of the shoe along at least one direction of extend (L) of the sole or of the sole part in accordance with the values measured according to step a) using a specified algorithm or a specified rule; c) Producing the sole or a sole part of the shoe , wherein the material characteristics and/or mechanical characteristics are varied along the at least one direction of extend (L) of the sole or of the sole part such that the material characteristic and/or mechanical characteristics at least approximately correspond to the progression determined according to step b); d) Connecting the sole produced according to step c) or the sole part to an upper in order to complete the shoe , characterized in that the production according to step c) takes place by injecting of plastic material into the cavity of an injection moulding tool, wherein at least one additive (C) is added in sections in different quantities to a base material (A, B) of the sole or of the sole part at the production of the sole or the sole part. a) Measuring at least one individual characteristic of the foot of a person and/or one walking characteristic of the person by means of a measuring device ; b) Determining the progression of a material characteristic and/or mechanical characteristic of at least one sole or one sole part of the shoe along at least one direction of extend (L) of the sole or of the sole part in accordance with the values measured according to step a) using a specified algorithm or a specified rule; c) Producing the sole or a sole part of the shoe , wherein the material characteristics and/or mechanical characteristics are varied along the at least one direction of extend (L) of the sole or of the sole part such that the material characteristic and/or mechanical characteristics at least approximately correspond to the progression determined according to step b); d) Connecting the sole produced according to step c) or the sole part to an upper in order to complete the shoe ,
A stimulator comprising: a feedback detector configured to detect biological feedback of a target responding to a detection stimulus signal; a controller configured to determine a waveform of an optimum stimulus signal based on the detected biological feedback while adjusting a stimulus strength and a stimulus duration of the detection stimulus signal, wherein an optimum stimulus strength and an optimum stimulus duration of the optimum stimulus signal to minimize a power consumption of the stimulator is determined; a voltage measurer configured to measure a voltage generated in response to the optimum stimulus signal being applied to the target ; and a power supply configured to provide an operating voltage of the stimulator based on the measured voltage, wherein the controller is further configured to calculate a bioimpedance of the target based on a waveform of the measured voltage, and to determine the operating voltage based on the bioimpedance and the waveform of the optimum stimulus signal. a feedback detector configured to detect biological feedback of a target responding to a detection stimulus signal; a controller configured to determine a waveform of an optimum stimulus signal based on the detected biological feedback while adjusting a stimulus strength and a stimulus duration of the detection stimulus signal, wherein an optimum stimulus strength and an optimum stimulus duration of the optimum stimulus signal to minimize a power consumption of the stimulator is determined; a voltage measurer configured to measure a voltage generated in response to the optimum stimulus signal being applied to the target ; and a power supply configured to provide an operating voltage of the stimulator based on the measured voltage, wherein the controller is further configured to calculate a bioimpedance of the target based on a waveform of the measured voltage, and to determine the operating voltage based on the bioimpedance and the waveform of the optimum stimulus signal.
A working vehicle comprising: - a traveling vehicle body configured to travel in accordance with either manual steering with a steering handle or auto steering to the steering handle based on a scheduled traveling line (L2); - a steering device configured to perform the manual steering and to perform the auto steering and having the steering handle ; - a receiver device provided to the traveling vehicle body and configured to receive a signal of a positioning satellite; - an inertia measurement unit configured to measure inertia of the traveling vehicle body ; - an auto steering mechanism configured to automatically steer the steering handle based on the signal received by the receiver device and the inertia measured by the inertia measurement unit ; characterized in that the working vehicle further comprises: - an anti-vibration member configured to suppress vibration of the inertia measurement unit ; and - a support member supporting the inertia measurement unit on the traveling vehicle body with the anti-vibration member . - a traveling vehicle body configured to travel in accordance with either manual steering with a steering handle or auto steering to the steering handle based on a scheduled traveling line (L2); - a steering device configured to perform the manual steering and to perform the auto steering and having the steering handle ; - a receiver device provided to the traveling vehicle body and configured to receive a signal of a positioning satellite; - an inertia measurement unit configured to measure inertia of the traveling vehicle body ; - an auto steering mechanism configured to automatically steer the steering handle based on the signal received by the receiver device and the inertia measured by the inertia measurement unit ; - an anti-vibration member configured to suppress vibration of the inertia measurement unit ; and - a support member supporting the inertia measurement unit on the traveling vehicle body with the anti-vibration member .
A method of identifying problems in applications, comprising: monitoring (202-212) at a kernel level system resource usage of one or more running applications over a plurality of consecutive discrete time periods without modifying run-time environments of the one or more running applications; determining (302-310), from the system resource usage, a memory usage pattern for at least one running application, the memory usage pattern indicating memory usage for the application during one period of monitoring and memory usage for the application during another period of monitoring,; determining that an abnormal memory usage pattern exists when a particular process's memory usage satisfies a predetermined criteria, wherein a process is an execution of the application , and wherein the predetermined criteria comprises: a predetermined number of increases in memory usage allowed during the plurality of periods; or the particular process's memory usage continually increasing without any decrease in size during a number of interval periods; and identifying the application as having a problem when it is determined that an abnormal pattern exists. monitoring (202-212) at a kernel level system resource usage of one or more running applications over a plurality of consecutive discrete time periods without modifying run-time environments of the one or more running applications; determining (302-310), from the system resource usage, a memory usage pattern for at least one running application, the memory usage pattern indicating memory usage for the application during one period of monitoring and memory usage for the application during another period of monitoring,; determining that an abnormal memory usage pattern exists when a particular process's memory usage satisfies a predetermined criteria, wherein a process is an execution of the application , and wherein the predetermined criteria comprises: a predetermined number of increases in memory usage allowed during the plurality of periods; or the particular process's memory usage continually increasing without any decrease in size during a number of interval periods; and identifying the application as having a problem when it is determined that an abnormal pattern exists.
A method comprising: collecting flow records of traffic flow segments at both a first middlebox and a second middlebox in a network environment corresponding to one or more traffic flows passing through either or both the first middlebox and the second middlebox, the flow records including one or more transaction identifiers assigned to the traffic flows; identifying sources and destinations of the traffic flow segments in the network environment with respect to either or both the first middlebox or the second middlebox using the flow records; stitching together a subset of the traffic flow segments to form a first stitched traffic flow about the first middlebox in the network environment based on the one or more transaction identifiers assigned to the traffic flow segments and the sources and destinations of the traffic flow segments in the network environment with respect to the first middlebox; stitching together another subset of the traffic flow segments to form a second stitched traffic flow about the second middlebox in the network environment based on the one or more transaction identifiers assigned to the traffic flow segments and the sources and destinations of the traffic flow segments in the network environment with respect to the second middlebox; stitching together the first stitched traffic flow and the second stitched traffic flow to form a cross-middlebox stitched traffic flow across the first middlebox and the second middlebox; and incorporating the cross-middlebox stitched traffic flow as part of network traffic data for the network environment. collecting flow records of traffic flow segments at both a first middlebox and a second middlebox in a network environment corresponding to one or more traffic flows passing through either or both the first middlebox and the second middlebox, the flow records including one or more transaction identifiers assigned to the traffic flows; identifying sources and destinations of the traffic flow segments in the network environment with respect to either or both the first middlebox or the second middlebox using the flow records; stitching together a subset of the traffic flow segments to form a first stitched traffic flow about the first middlebox in the network environment based on the one or more transaction identifiers assigned to the traffic flow segments and the sources and destinations of the traffic flow segments in the network environment with respect to the first middlebox; stitching together another subset of the traffic flow segments to form a second stitched traffic flow about the second middlebox in the network environment based on the one or more transaction identifiers assigned to the traffic flow segments and the sources and destinations of the traffic flow segments in the network environment with respect to the second middlebox; stitching together the first stitched traffic flow and the second stitched traffic flow to form a cross-middlebox stitched traffic flow across the first middlebox and the second middlebox; and incorporating the cross-middlebox stitched traffic flow as part of network traffic data for the network environment.
A sensor button including at least one capacitive sensor electrode and at least one optical sensor coupled to a sensor circuit , characterized in, that the at least one capacitive sensor electrode is coupled to the sensor circuit for detecting the presence of a hand and/or a finger in a capacitive detection space , and the at least one optical sensor is coupled to the sensor circuit for detecting the position of a hand and/or a finger within an optical detection space and/or for detecting at least one hand and/or finger gesture within the optical detection space , wherein the optical detection space is at least partially more distant from the sensor button than the capacitive detection space characterized in, that the optical detection space is distant from the sensor button. the at least one capacitive sensor electrode is coupled to the sensor circuit for detecting the presence of a hand and/or a finger in a capacitive detection space , and the at least one optical sensor is coupled to the sensor circuit for detecting the position of a hand and/or a finger within an optical detection space and/or for detecting at least one hand and/or finger gesture within the optical detection space , wherein the optical detection space is at least partially more distant from the sensor button than the capacitive detection space characterized in, that the optical detection space is distant from the sensor button.
Use of 2-ethylhexyl nitrate and one or more detergents in a diesel fuel composition for the purpose of reducing internal diesel injector deposits in a compression ignition combustion engine, wherein the reduction in internal diesel injector deposits is measured according to the CEC F-110-16 test method, wherein the active matter concentration of the one or more detergents in the diesel fuel composition is from 10 to 750 ppmw, based on the weight of the total diesel fuel composition, and wherein the 2-ethylhexyl nitrate is present in the fuel composition at a level in the range from 50 to 1000 ppmw, based on the weight of the total diesel fuel composition.
A device for adhering by suction to a target surface , the device comprising: a substrate having a contact surface for contacting the device to the target surface ; a plurality of pockets distributed over the contact surface and formed by pocket surfaces extending into the contact surface , and having an open side in use facing and being closed off by the target surface ; wherein each pocket is provided with a flexible membrane forming at least part of the respective pocket surface ; and a one-way valve through the respective pocket surface , wherein the one-way valve is disposed between the respective pocket and an environment and configured to direct a contents of the respective pocket via the one-way valve to the environment ; wherein the device comprises at least one actuator integrated in the device and configured to actuate the flexible membranes of the pockets for causing the contents of the pockets to be pumped out by the actuated flexible membranes via the one-way valves thereby establishing or maintaining the suction between the contact surface of the device and the target surface . a substrate having a contact surface for contacting the device to the target surface ; a plurality of pockets distributed over the contact surface and formed by pocket surfaces extending into the contact surface , and having an open side in use facing and being closed off by the target surface ; wherein each pocket is provided with a flexible membrane forming at least part of the respective pocket surface ; and a one-way valve through the respective pocket surface , wherein the one-way valve is disposed between the respective pocket and an environment and configured to direct a contents of the respective pocket via the one-way valve to the environment ; a flexible membrane forming at least part of the respective pocket surface ; and a one-way valve through the respective pocket surface , wherein the one-way valve is disposed between the respective pocket and an environment and configured to direct a contents of the respective pocket via the one-way valve to the environment ; wherein the device comprises at least one actuator integrated in the device and configured to actuate the flexible membranes of the pockets for causing the contents of the pockets to be pumped out by the actuated flexible membranes via the one-way valves thereby establishing or maintaining the suction between the contact surface of the device and the target surface .
A composite material board that comprises a core as well as a first cover layer and a second cover layer that are respectively made of a mixture of particles containing lignin and a bonding agent, that in a chemical or mechanical bonding process is formed into a solid structure, wherein at least 70%, preferably at least 80%, very preferably at least 90% of the particles belonging to the mixture of the core are obtained from annual plants and at least 70%, preferably at least 80%, very preferably at least 90% of the particles belonging to the mixture of the two cover layers are obtained from wood.