mhurhangee/patent-ind-claim-en huggingface dataset:
A system for supporting an arm of a user while using a tool, comprising: a harness configured to be worn on a body of a user, the harness comprising a shoulder harness configured to be worn over or around one or both shoulders of the user including a first pivot point (VP7) above the shoulder of a user when the harness is worn by the user; an arm support comprising a first arm support segment pivotally coupled to the first pivot point (VP7), a second arm support segment pivotally coupled to the first arm support segment for supporting an upper arm of the user, and a third arm support segment pivotally coupled to the second arm support segment for supporting a lower arm of the user; and a first set of compensation elements coupled to the second arm support segment for at least partially offsetting a gravitational force acting on the upper arm, and a second set of compensation elements coupled to the third arm support segment for at least partially offsetting a gravitational force acting on the lower arm; characterised in that the system further comprises: a tool mount coupled to the third arm support segment ; and a linkage coupled between the first arm support segment and the third arm support segment such that a vertical angle of the third arm support segment is not affected by rotation of the second arm support segment . a harness configured to be worn on a body of a user, the harness comprising a shoulder harness configured to be worn over or around one or both shoulders of the user including a first pivot point (VP7) above the shoulder of a user when the harness is worn by the user; an arm support comprising a first arm support segment pivotally coupled to the first pivot point (VP7), a second arm support segment pivotally coupled to the first arm support segment for supporting an upper arm of the user, and a third arm support segment pivotally coupled to the second arm support segment for supporting a lower arm of the user; and a first set of compensation elements coupled to the second arm support segment for at least partially offsetting a gravitational force acting on the upper arm, and a second set of compensation elements coupled to the third arm support segment for at least partially offsetting a gravitational force acting on the lower arm; characterised in that the system further comprises: a tool mount coupled to the third arm support segment ; and a linkage coupled between the first arm support segment and the third arm support segment such that a vertical angle of the third arm support segment is not affected by rotation of the second arm support segment . a tool mount coupled to the third arm support segment ; and a linkage coupled between the first arm support segment and the third arm support segment such that a vertical angle of the third arm support segment is not affected by rotation of the second arm support segment .
A phased-array antenna comprising: a first substrate ; and a plurality of phased-array elements arranged on the first substrate , wherein at least one of the phased-array elements comprises: a first electrode ; a second electrode facing the first electrode ; a voltage-controlled phase shift material located between the first electrode and the second electrode , wherein the first electrode is configured to receive a bias signal for controlling the voltage-controlled phase shift material , and the second electrode serves as a ground electrode; and a microstrip line electrically insulated from the first electrode , wherein the first electrode is located between the microstrip line and the voltage-controlled phase shift material , and the microstrip line is configured to receive or transmit a transmission signal, characterized in that the first electrode and the microstrip line have the same shape, such that the same mask can be used when manufacturing the first electrode and the microstrip line. a first substrate ; and a plurality of phased-array elements arranged on the first substrate , wherein at least one of the phased-array elements comprises: a first electrode ; a second electrode facing the first electrode ; a voltage-controlled phase shift material located between the first electrode and the second electrode , wherein the first electrode is configured to receive a bias signal for controlling the voltage-controlled phase shift material , and the second electrode serves as a ground electrode; and a microstrip line electrically insulated from the first electrode , wherein the first electrode is located between the microstrip line and the voltage-controlled phase shift material , and the microstrip line is configured to receive or transmit a transmission signal, characterized in that the first electrode and the microstrip line have the same shape, such that the same mask can be used when manufacturing the first electrode and the microstrip line. a first electrode ; a second electrode facing the first electrode ; a voltage-controlled phase shift material located between the first electrode and the second electrode , wherein the first electrode is configured to receive a bias signal for controlling the voltage-controlled phase shift material , and the second electrode serves as a ground electrode; and a microstrip line electrically insulated from the first electrode , wherein the first electrode is located between the microstrip line and the voltage-controlled phase shift material , and the microstrip line is configured to receive or transmit a transmission signal, characterized in that the first electrode and the microstrip line have the same shape, such that the same mask can be used when manufacturing the first electrode and the microstrip line.
Final storage container for at least one contaminated article, having an interior space for receiving the at least one contaminated article, which interior space is formed by side walls , end walls , a bottom and a top which has an opening which is closable by means of at least one cover , characterized in that at least some side walls , end walls , the bottom and/or the top are assigned grooves or projections which correspond with one another such that at least some side walls , end walls , the bottom and/or the top can be plugged together and are additionally connected to one another by means of weld seams.
A system for identification of sample cells of a sample tray for placement in a chromatography autosampler , each sample cell having (i) a container having a side wall and (ii) a cap having an end surface visible from the sample tray , the system comprising: a machine vision (MV) module within the autosampler , the MV module including a camera assembly, the camera assembly comprising a horizontally-directed camera configured to scan the side wall of each sample cell and a vertically-directed camera configured to scan the end surfaces of all of the sample cells of the sample tray ; a cell gripper assembly configured to selectively grip, lift, and rotate respective sample cells relative to the sample tray ; and a computing device that controls the MV module , wherein the computing device is configured to (i) control the cell gripper assembly to grip, lift, and rotate one of the sample cells above adjacent sample cells of the sample tray , (ii) control the horizontally-directed camera to scan the side wall of the one sample cell while rotated by the cell gripper assembly , and (iii) determine an identity of the sample in the sample cell based upon the scanned side walls and/or end surfaces of each sample cell . a machine vision (MV) module within the autosampler , the MV module including a camera assembly, the camera assembly comprising a horizontally-directed camera configured to scan the side wall of each sample cell and a vertically-directed camera configured to scan the end surfaces of all of the sample cells of the sample tray ; a cell gripper assembly configured to selectively grip, lift, and rotate respective sample cells relative to the sample tray ; and a computing device that controls the MV module , wherein the computing device is configured to (i) control the cell gripper assembly to grip, lift, and rotate one of the sample cells above adjacent sample cells of the sample tray , (ii) control the horizontally-directed camera to scan the side wall of the one sample cell while rotated by the cell gripper assembly , and (iii) determine an identity of the sample in the sample cell based upon the scanned side walls and/or end surfaces of each sample cell .
An alumina powder comprising at least 75 wt% alpha alumina, wherein the alumina powder has: a specific surface area of 5-12 m 2 /g; and a particle size distribution with a D5 of 0.01-5 microns, a D50 of 5-50 microns, and a D95 of 30-120 microns, wherein particles in the alumina powder comprise a plurality of crystallites having an average primary crystallite size of less than 2 microns. a specific surface area of 5-12 m 2 /g; and a particle size distribution with a D5 of 0.01-5 microns, a D50 of 5-50 microns, and a D95 of 30-120 microns,
A thermoplastic elastomer composition comprising components (A) to (C), listed below, component (A): a propylene-based polymer; component (B): a block copolymer and/or a hydrogenated product thereof, the block copolymer including at least two polymer blocks P and at least one polymer block Q, the at least two polymer blocks P primarily including aromatic vinyl compound units, the at least one polymer block Q primarily including conjugated diene compound units; and component (C): an aryl-group-containing organopolysiloxane, wherein the component (C) is an aralkyl-group-containing organopolysiloxane. component (A): a propylene-based polymer; component (B): a block copolymer and/or a hydrogenated product thereof, the block copolymer including at least two polymer blocks P and at least one polymer block Q, the at least two polymer blocks P primarily including aromatic vinyl compound units, the at least one polymer block Q primarily including conjugated diene compound units; and component (C): an aryl-group-containing organopolysiloxane, wherein the component (C) is an aralkyl-group-containing organopolysiloxane.
A method for fusing a radar image in response to radar pulses transmitted to a region of interest (ROI), a transmitter transmits the radar pulses toward the ROI and a set of distributed receivers (102-105) to receive a set of reflections from the ROI, the method comprising: receiving the set of reflections from at least one target located in the ROI, each reflection is recorded by a receiver from the set of distributed receivers at a corresponding time and at a corresponding coarse location, wherein the coarse locations include unknown position errors; aligning the set of reflections on a time scale using the corresponding coarse locations of the set of distributed receivers to produce a time projection of the set of reflections for the at least one target; fitting a line into data points formed from radar pulses in the set of reflections received from the set of distributed receivers, the pulses corresponding to the same target that the set of reflections are aligned in time, assuming that the average of the position errors is zero; determining a distance between the fitted line and each data point; adjusting the coarse location of the set of distributed receivers on a virtual array using the corresponding distance between the fitted line and each data point; and fusing the radar image using the set of reflections received at the adjusted coarse location of the set of distributed receivers, wherein steps of the method are performed by a processor . receiving the set of reflections from at least one target located in the ROI, each reflection is recorded by a receiver from the set of distributed receivers at a corresponding time and at a corresponding coarse location, wherein the coarse locations include unknown position errors; aligning the set of reflections on a time scale using the corresponding coarse locations of the set of distributed receivers to produce a time projection of the set of reflections for the at least one target; fitting a line into data points formed from radar pulses in the set of reflections received from the set of distributed receivers, the pulses corresponding to the same target that the set of reflections are aligned in time, assuming that the average of the position errors is zero; determining a distance between the fitted line and each data point; adjusting the coarse location of the set of distributed receivers on a virtual array using the corresponding distance between the fitted line and each data point; and fusing the radar image using the set of reflections received at the adjusted coarse location of the set of distributed receivers, wherein steps of the method are performed by a processor .
A substance for use in a method of treating rosacea, comprising the step of administering the substance which is a pharmaceutically effective amount of the Erk kinase pathway inhibitor trametinib.
A computer implemented method for determining data access restrictions, the method comprising: determining a first access restriction to first data; determining a data provenance of second data, the determined data provenance indicating a dependency of the second data on the first data; and determining , based on the data provenance and the first access restriction, a second access restriction to the second data; characterized in that determining the first access restriction comprises monitoring the first access restriction; and determining the second access restriction comprises dynamically determining the second access restriction based on the monitored first access restriction. determining a first access restriction to first data; determining a data provenance of second data, the determined data provenance indicating a dependency of the second data on the first data; and determining , based on the data provenance and the first access restriction, a second access restriction to the second data; characterized in that determining the first access restriction comprises monitoring the first access restriction; and determining the second access restriction comprises dynamically determining the second access restriction based on the monitored first access restriction.
Method for voltage balancing series connected power switching devices, wherein at least one said power switching device is connected in parallel with a respective diverter, each said diverter having controllable impedance to controllably conduct current diverted from a respective said power switching device, the method comprising: - controlling each said diverter to follow a series of successively higher impedance states during an OFF period of the power switching devices, the series comprising at least two said impedance states, wherein each said series comprises at least a first impedance of a diverter and then a second, higher impedance of the diverter, the first impedance occurring responsive to an indication of a start of the OFF period; characterized in that the method further comprises: - monitoring a signal of each diverter to thereby detect imbalance between the monitored signals, wherein each said signal indicates at least one of current through and voltage across the diverter, - wherein at least one of said successively higher impedance states of at least one said diverter is responsive to detecting a reduction of a said imbalance. - controlling each said diverter to follow a series of successively higher impedance states during an OFF period of the power switching devices, the series comprising at least two said impedance states, wherein each said series comprises at least a first impedance of a diverter and then a second, higher impedance of the diverter, the first impedance occurring responsive to an indication of a start of the OFF period; - monitoring a signal of each diverter to thereby detect imbalance between the monitored signals, wherein each said signal indicates at least one of current through and voltage across the diverter, - wherein at least one of said successively higher impedance states of at least one said diverter is responsive to detecting a reduction of a said imbalance.
A measuring device for measuring a dielectricity value (DK) of a filling material present in a container , comprising: - A signal generating unit which is designed to activate a transmitting electrode using an electrical AC signal (SHF) in such a way that the transmitting electrode transmits a radar signal (SHF) toward the filling material , wherein the transmitting electrode can be arranged in the container, - A receiving electrode which can be arranged in the container so that it receives the radar signal (SHF) once it has passed through the filling material , and - An evaluation unit which is configured to determine an amplitude, a phase shift and/or a signal duration between the transmitting electrode and the receiving electrode using the radar signal (SHF) received by the receiving electrode , and to determine the dielectricity value (DK) using the ascertained signal duration, phase shift and/or the ascertained amplitude, wherein the transmitting electrode and the receiving electrode are aligned parallel to each other, wherein the transmitting electrode and the receiving electrode each comprise at least - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b). - A signal generating unit which is designed to activate a transmitting electrode using an electrical AC signal (SHF) in such a way that the transmitting electrode transmits a radar signal (SHF) toward the filling material , wherein the transmitting electrode can be arranged in the container, - A receiving electrode which can be arranged in the container so that it receives the radar signal (SHF) once it has passed through the filling material , and - An evaluation unit which is configured to determine an amplitude, a phase shift and/or a signal duration between the transmitting electrode and the receiving electrode using the radar signal (SHF) received by the receiving electrode , and to determine the dielectricity value (DK) using the ascertained signal duration, phase shift and/or the ascertained amplitude, wherein the transmitting electrode and the receiving electrode are aligned parallel to each other, wherein the transmitting electrode and the receiving electrode each comprise at least - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b). - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b).
A self-propelled construction machine , in particular a road milling machine, comprising - a machine frame , - at least three travelling devices , - wherein at least one of the three travelling devices is realized as a pivotable travelling device so that said travelling device is pivotable about at least one vertical pivoting axis in relation to the machine frame between a first pivoted-in and at least one second pivoted-out position, - at least one working device , in particular a milling drum, for working the ground pavement , - at least one hydraulic drive system for driving at least two travelling devices , wherein at least one of the at least two driven travelling devices is the pivotable travelling device , wherein the hydraulic drive system comprises at least one hydraulic pump , wherein the hydraulic drive system comprises respectively one hydraulic variable displacement motor for driving the driven travelling devices with the exception of the at least one pivotable travelling device , wherein the hydraulic drive system comprises a hydraulic fixed displacement motor for driving the at least one pivotable travelling device , characterized in that the hydraulic drive system comprises a controllable valve in the supply lines assigned to the hydraulic fixed displacement motor , wherein the controllable valve is a throttle valve or a volumetric flow rate control valve. - a machine frame , - at least three travelling devices , - wherein at least one of the three travelling devices is realized as a pivotable travelling device so that said travelling device is pivotable about at least one vertical pivoting axis in relation to the machine frame between a first pivoted-in and at least one second pivoted-out position, - at least one working device , in particular a milling drum, for working the ground pavement , - at least one hydraulic drive system for driving at least two travelling devices , wherein at least one of the at least two driven travelling devices is the pivotable travelling device , wherein the hydraulic drive system comprises at least one hydraulic pump , wherein the hydraulic drive system comprises respectively one hydraulic variable displacement motor for driving the driven travelling devices with the exception of the at least one pivotable travelling device , wherein the hydraulic drive system comprises a hydraulic fixed displacement motor for driving the at least one pivotable travelling device , characterized in that the hydraulic drive system comprises a controllable valve in the supply lines assigned to the hydraulic fixed displacement motor , wherein the controllable valve is a throttle valve or a volumetric flow rate control valve.
A method of manufacturing a bi-material part (12; 112), the part comprising a thermoformed substrate (2; 102) and a reinforcement (4; 104) of composite material comprising fibres and resin, the substrate being thermoformed from a sheet, a first side of which is made of Acrylonitrile Butadiene Styrene, or ABS, and a second side of which is made of Polymethyl Methacrytal, or PMMA, this process comprising at least steps consisting of: • a) placing (Fig 1) the thermoformed substrate on a support (1; 101); • b) placing (Fig 2), on the first ABS face of the thermoformed substrate, the reinforcement (4; 104) made of composite material; • c) applying (Fig 3) at least one resin retention layer (6, 8; 106, 108) to the composite material reinforcement; • d) superimposing (Fig 4), on the retention layer(s), an airtight tarpaulin (10; 110); • e) pull the vacuum (Fig 5; Fig 9) under the cover; and • f) remove the tarpaulin (Fig 6) and the retention layer(s). • a) placing (Fig 1) the thermoformed substrate on a support (1; 101); • b) placing (Fig 2), on the first ABS face of the thermoformed substrate, the reinforcement (4; 104) made of composite material; • c) applying (Fig 3) at least one resin retention layer (6, 8; 106, 108) to the composite material reinforcement; • d) superimposing (Fig 4), on the retention layer(s), an airtight tarpaulin (10; 110); • e) pull the vacuum (Fig 5; Fig 9) under the cover; and • f) remove the tarpaulin (Fig 6) and the retention layer(s).