mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a data carrier, wherein the data carrier comprises an opaque layer portion applied into a body of the data carrier and a beam-modifying portion applied onto a surface of the body of the data carrier, said beam-modifying portion being positioned at least partially overlapping the opaque layer portion , said beam-modifying portion having an optical property capable of modifying a laser beam, the method comprising: - irradiating the laser beam to the opaque layer portion through the surface of the data carrier of partially marking the opaque layer in such a way that it creates an opaque personalized data , - irradiating the laser beam to the opaque layer portion through the beam-modifying portion to allow the modifying of the laser beam according to the optical property to produce a resultant laser beam that partially marks the opaque layer portion in such a way that it creates an opaque pattern corresponding to the result of the irradiation of the beam-modifying portion ; the method being characterized in that the opaque layer portion is a metal layer, and said opaque pattern is in a superposing relation with the beam-modifying portion to create an appearance of a metalized embossing pattern. - irradiating the laser beam to the opaque layer portion through the surface of the data carrier of partially marking the opaque layer in such a way that it creates an opaque personalized data , - irradiating the laser beam to the opaque layer portion through the beam-modifying portion to allow the modifying of the laser beam according to the optical property to produce a resultant laser beam that partially marks the opaque layer portion in such a way that it creates an opaque pattern corresponding to the result of the irradiation of the beam-modifying portion ; the method being characterized in that the opaque layer portion is a metal layer, and said opaque pattern is in a superposing relation with the beam-modifying portion to create an appearance of a metalized embossing pattern.
Method for the manufacture of a welding stud comprising the steps of: - providing a welding part adapted to be welded to a workpiece, the welding part comprising a recess, the welding part being in a first material, wherein the first material is a lightweight material, wherein the recess has a first recess dimension; - providing a shaft extending along a longitudinal axis between a first end portion and a second end portion, wherein the shaft is in a second material, different from the first material, wherein the first end portion has an end portion dimension, - heating the welding part such that the area surrounding the recess is dilated and the first recess dimension is increased or cooling the shaft such that the first end portion is retracted; - fitting the first end portion in the recess; - shrinking the welding part around the first end portion in order to connect the welding part with the shaft. - providing a welding part adapted to be welded to a workpiece, the welding part comprising a recess, the welding part being in a first material, wherein the first material is a lightweight material, wherein the recess has a first recess dimension; - providing a shaft extending along a longitudinal axis between a first end portion and a second end portion, wherein the shaft is in a second material, different from the first material, wherein the first end portion has an end portion dimension, - heating the welding part such that the area surrounding the recess is dilated and the first recess dimension is increased or cooling the shaft such that the first end portion is retracted; - fitting the first end portion in the recess; - shrinking the welding part around the first end portion in order to connect the welding part with the shaft.
Method of improving the operation of machines with an associated machine computer , the machines connected to at least one further computer via a communication network , wherein operating data and job data of the machine computer are transmitted to the further computer (1, 3, 6, 9, 10,) via the communication network and saved on the further computer , wherein the further computer compares the output of at least one machine to the output of further machines and wherein the further computer calculates improved settings for at least one of the machines on the basis of the output comparison and makes the improved settings available for an adjustment of the machine , characterized in that the computers of the machines are identified and only computers which have released data for a data exchange themselves may receive and analyze data of other computers . wherein operating data and job data of the machine computer are transmitted to the further computer (1, 3, 6, 9, 10,) via the communication network and saved on the further computer , wherein the further computer compares the output of at least one machine to the output of further machines and wherein the further computer calculates improved settings for at least one of the machines on the basis of the output comparison and makes the improved settings available for an adjustment of the machine , characterized in that the computers of the machines are identified and only computers which have released data for a data exchange themselves may receive and analyze data of other computers .
A method in a wireless local area network, WLAN, system, the method comprising: performing (S2610), by a non-simultaneous transmit and receive, non-STR, device, channel access on a first link and a second link; and determining (S2620), by the non-STR device, whether to transmit a first physical protocol data unit, PPDU, based on a channel access result on the first link and a channel access result on the second link, wherein based on a back-off counter of the first link reaching zero and a back-off counter of the second link not reaching zero, the non-STR device determines not to transmit the first PPDU through the first link and keeps the back-off counter of the first link at zero, and wherein based on a back-off counter of the first link reaching zero and a back-off counter of the second link reaching zero, the non-STR device determines to transmit the first PPDU through the first link. performing (S2610), by a non-simultaneous transmit and receive, non-STR, device, channel access on a first link and a second link; and determining (S2620), by the non-STR device, whether to transmit a first physical protocol data unit, PPDU, based on a channel access result on the first link and a channel access result on the second link, wherein based on a back-off counter of the first link reaching zero and a back-off counter of the second link not reaching zero, the non-STR device determines not to transmit the first PPDU through the first link and keeps the back-off counter of the first link at zero, and wherein based on a back-off counter of the first link reaching zero and a back-off counter of the second link reaching zero, the non-STR device determines to transmit the first PPDU through the first link.
A method of increasing soil water content, the method comprising applying a soil enhancement agent to the soil, wherein the soil enhancement agent comprises one or both of (i) lactobionic acid and (ii) at least one salt of lactobionic acid.
Method for detecting partial width positions within the spreading fan of a centrifugal spreader, implemented by an agricultural data processing system, wherein the spreading fan of the centrifugal spreader is determined in accordance with the spreading parameters used, in particular the type of the centrifugal disc , rotational speed of the centrifugal disc, application point of the spreading material onto the centrifugal disc and preferably the type of the spreading material, wherein a plurality of partial widths , which are at least mainly arranged one next to the other perpendicularly with respect to the direction of travel, at least approximately completely cover the width of the spreading fan , wherein the partial widths are arranged offset in the direction of travel in accordance with the shape of the spreading fan , characterized in that the shape and/or extent of each partial width in the direction of travel is selected in accordance with the offset of the partial widths in the direction of travel in such a way that two partial widths which are adjacent perpendicularly with respect to the direction of travel at least partially overlap, in particular in the direction of travel.
An assembly for driving a plunger in a drug reservoir (324; 424; 1124;1424), the plunger dividing between a drug in a distal portion of the reservoir (324; 424; 1124; 1424) and a proximal opening of the reservoir (324; 424; 1124; 1424); the assembly comprising: a telescoping shaft that extends by rotation of a driving element in a first rotational direction with respect to a distal shaft ; a distal end of said distal shaft configured to engage the plunger ; and a friction element extending from said distal shaft ; characterized in that the friction element comprises a flexible disk and a plurality of independent flexible radial elements extending radially from the flexible disk to contact an interior side wall of the reservoir (324; 424; 1124; 1424), said flexible radial elements extending from the disk tilting off toward the first rotational direction to wedge between said interior wall and said distal shaft when said distal shaft is rotated in said first rotational direction, said radial elements having respective leading edges and trailing edges , at least one of the leading edges extending radially from the disk at a first angle and a trailing edge associated with a same radial element as the at least one of the leading edges extending radially from the disk at a second angle, the first angle being different than the second angle. a telescoping shaft that extends by rotation of a driving element in a first rotational direction with respect to a distal shaft ; a distal end of said distal shaft configured to engage the plunger ; and a friction element extending from said distal shaft ; characterized in that the friction element comprises a flexible disk and a plurality of independent flexible radial elements extending radially from the flexible disk to contact an interior side wall of the reservoir (324; 424; 1124; 1424), said flexible radial elements extending from the disk tilting off toward the first rotational direction to wedge between said interior wall and said distal shaft when said distal shaft is rotated in said first rotational direction, said radial elements having respective leading edges and trailing edges , at least one of the leading edges extending radially from the disk at a first angle and a trailing edge associated with a same radial element as the at least one of the leading edges extending radially from the disk at a second angle, the first angle being different than the second angle.
S)-N-(4-amino-6-methyl-5-(quinolin-3-yl)-8,9-dihydropyrimido[5,4-b]indolizin-8-yl)acrylamide or a salt thereof for use in treating a malignant tumor patient expressing EGFR having at least one mutation selected from the group consisting of G719X mutation of exon 18, E709X mutation of exon 18, and L861X mutation of exon 21, wherein X represents an arbitrary amino-acid residue.
A materials transport device including a cylinder, pipe, and/or tube conveyance component having a longitudinal axis and a circumference, an external portion and an internal portion, wherein said conveyance component comprises at least three injectors housed on the external portion of the conveyance component , the at least three injectors being spaced from each other along the longitudinal axis, said at least three injectors providing internal introduction of forced fluids angularly within the internal portion of said conveyance component , characterized in that the at least three injectors are evenly spaced circumferentially around said external portion and wherein said injectors are aligned to provide uniform angles of fluid introduction within said conveyance component internal portion, and wherein said uniform angles of fluid introduction at selected pressures and/or velocities create a vortex effect within said conveyance component upon uniform introduction of fluid or gas materials within said injectors such that said vortex effect creates vacuum acceleration when the device is installed in one direction and vacuum deceleration when the device is installed in a reverse direction.
An electronic engine controller (EEC) for a gas turbine engine, wherein the electronic engine controller is configured to be connected to a solenoid valve , and configured to control the solenoid valve by providing a driving signal to either a first solenoid winding or a second solenoid winding of the solenoid valve, the first and second solenoid windings being magnetically coupled to one another by an armature of the solenoid valve; wherein the armature is movable under the action of the driving signal to operate the solenoid valve; the solenoid winding of the first and second solenoid windings provided with the driving signal is a driving winding and the other solenoid winding of the first and second solenoid windings is a pick-up winding; wherein, when the electronic engine controller controls the solenoid valve via the driving winding by providing the driving signal thereto, it is further configured to sense a position of the solenoid valve via the pick-up winding by detecting a signal induced in the pick-up winding by the magnetic coupling; and wherein the electronic engine controller is configured to sense the position of the solenoid valve based on a comparison between a first area under an amplitude of the driving signal provided to the driving winding, and a second area under an amplitude of the signal induced in the pick-up solenoid winding, the comparison between the first area and the second area being the determination of a ratio of the first area to the second area, and the electronic engine controller being configured to start and stop integrations at the same time when calculating the first area and the second area. wherein the armature is movable under the action of the driving signal to operate the solenoid valve; the solenoid winding of the first and second solenoid windings provided with the driving signal is a driving winding and the other solenoid winding of the first and second solenoid windings is a pick-up winding; wherein, when the electronic engine controller controls the solenoid valve via the driving winding by providing the driving signal thereto, it is further configured to sense a position of the solenoid valve via the pick-up winding by detecting a signal induced in the pick-up winding by the magnetic coupling; and wherein the electronic engine controller is configured to sense the position of the solenoid valve based on a comparison between a first area under an amplitude of the driving signal provided to the driving winding, and a second area under an amplitude of the signal induced in the pick-up solenoid winding, the comparison between the first area and the second area being the determination of a ratio of the first area to the second area, and the electronic engine controller being configured to start and stop integrations at the same time when calculating the first area and the second area.
A system comprising: persistent main memory ; one or more event writing components associated with threads that request logging of events; persistent storage that has therein a log of events; characterized in that the system comprises a recovery component that is triggered during recovery to use the log in persistent storage as well as events written to the persistent main memory in order to perform recovery; and a log management component that causes events, that the threads request be logged, to be written to the persistent main memory in a manner that the recovery component would log the event in case of recovery, the event being written into the persistent main memory prior to the event being written along with other accumulated events into the log in the persistent store, the log management component causing the threads for each of at least some of the event writes to be returned after the event is written to the persistent main memory but before the event is written to the log in the persistent storage. persistent main memory ; one or more event writing components associated with threads that request logging of events; persistent storage that has therein a log of events; characterized in that the system comprises a recovery component that is triggered during recovery to use the log in persistent storage as well as events written to the persistent main memory in order to perform recovery; and a log management component that causes events, that the threads request be logged, to be written to the persistent main memory in a manner that the recovery component would log the event in case of recovery, the event being written into the persistent main memory prior to the event being written along with other accumulated events into the log in the persistent store, the log management component causing the threads for each of at least some of the event writes to be returned after the event is written to the persistent main memory but before the event is written to the log in the persistent storage.
A medical apparatus, comprising: a shaft for insertion into an organ of a patient; an expandable frame coupled to a distal end of the shaft, the expandable frame extending along a longitudinal axis , wherein the expandable frame comprises a plurality of expandable spines disposed about the longitudinal axis ; a plurality of diagnostic electrodes , which are disposed on external surfaces of the expandable spines , and which are configured to sense diagnostic signals when in contact with tissue; and a respective plurality of reference electrodes disposed on internal surfaces of the expandable spines directly opposite the diagnostic electrodes , wherein the reference electrodes are electrically insulated from the tissue, but in contact with blood flow when the plurality of diagnostic electrodes are in contact with the tissue, and are configured to sense far field signals conducted by blood; and a processor , which is configured to: receive the diagnostic signals sensed by the plurality of diagnostic electrodes ; receive the far field signals sensed by the respective plurality of reference electrodes ; and calculate corrected diagnostic signals by subtracting the far field signals from the diagnostic signals, characterized in that : the reference electrodes on a given spine are electrically connected to each other and thereby configured as a single reference electrode . a shaft for insertion into an organ of a patient; an expandable frame coupled to a distal end of the shaft, the expandable frame extending along a longitudinal axis , wherein the expandable frame comprises a plurality of expandable spines disposed about the longitudinal axis ; a plurality of diagnostic electrodes , which are disposed on external surfaces of the expandable spines , and which are configured to sense diagnostic signals when in contact with tissue; and a respective plurality of reference electrodes disposed on internal surfaces of the expandable spines directly opposite the diagnostic electrodes , wherein the reference electrodes are electrically insulated from the tissue, but in contact with blood flow when the plurality of diagnostic electrodes are in contact with the tissue, and are configured to sense far field signals conducted by blood; and a processor , which is configured to: receive the diagnostic signals sensed by the plurality of diagnostic electrodes ; receive the far field signals sensed by the respective plurality of reference electrodes ; and receive the diagnostic signals sensed by the plurality of diagnostic electrodes ; receive the far field signals sensed by the respective plurality of reference electrodes ; and calculate corrected diagnostic signals by subtracting the far field signals from the diagnostic signals,
A method in a universal printing control comprising a single print controller for use in an industrial printing setting configured to control one or several types of print-head of different print technologies, the method comprising: determining a print-head type configuration, from a variety of different print-head type configurations, of a print-head in connection to the controller; choosing a print technology format from a variety of different print technology formats based on the print-head configuration, wherein the print technology relates to at least vector, raster, and/or Radio Frequency Identification (RFID) type print technologies; and transmitting simultaneously by the single print controller, via communication ports connecting the print-heads of different print technologies, print instructions for printing an image description based on the chosen print technology format comprising print imaging parameters and/or print technology specific parameters. determining a print-head type configuration, from a variety of different print-head type configurations, of a print-head in connection to the controller; choosing a print technology format from a variety of different print technology formats based on the print-head configuration, wherein the print technology relates to at least vector, raster, and/or Radio Frequency Identification (RFID) type print technologies; and transmitting simultaneously by the single print controller, via communication ports connecting the print-heads of different print technologies, print instructions for printing an image description based on the chosen print technology format comprising print imaging parameters and/or print technology specific parameters.
Method for managing a network of storage batteries suitable for supplying electric current to an engine of an electrically propelled motor vehicle , said network comprising a first storage battery and at least a second storage battery connected in parallel, each storage battery being connected to the rest of the network via a relay which enables said storage battery to be isolated from the other storage batteries , and which is controlled by a computer , said method comprising the steps of: - acquiring a state of charge for each storage battery , - determining, by the computer , a control setpoint for each relay on the basis of the acquired states of charge, and - controlling said relays on the basis of each determined control setpoint, characterized in that : - in the acquisition step, the computer acquires the value of a first parameter relating to the level of wear of each storage battery , and in that - in the determination step, each control setpoint is determined on the basis of the value of said first parameter. - acquiring a state of charge for each storage battery , - determining, by the computer , a control setpoint for each relay on the basis of the acquired states of charge, and - controlling said relays on the basis of each determined control setpoint, - in the acquisition step, the computer acquires the value of a first parameter relating to the level of wear of each storage battery , and in that - in the determination step, each control setpoint is determined on the basis of the value of said first parameter.