mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for colouring threaded material, said apparatus including: a drive member configured to rotate at least one take-up spool; a primary thread guide comprising a passage configured to guide a threaded material as the threaded material is wound onto the at least one take-up spool; the primary thread guide further comprising a receptacle adapted to receive a marking device, and wherein the receptacle is configured to dispose a colorant-delivering portion of the marking device against the threaded material; a pay-out support member rotatably supporting at least one pay-out spool, characterised in that the primary thread guide is positioned to direct the thread material toward a portion of the take-up spool as the threaded material is unwound from the pay-out spool and wound onto the take-up spool. a drive member configured to rotate at least one take-up spool; a primary thread guide comprising a passage configured to guide a threaded material as the threaded material is wound onto the at least one take-up spool; the primary thread guide further comprising a receptacle adapted to receive a marking device, and wherein the receptacle is configured to dispose a colorant-delivering portion of the marking device against the threaded material; a pay-out support member rotatably supporting at least one pay-out spool,
A method of balancing a DC midpoint of a three level inverter, the method comprising: receiving an input power signal at a three level motor controller system that includes a three level inverter; measuring, using a current sensor in the three level motor controller system, a DC current (Idc_sense) of the input power signal before the input power signal is provided to the three level inverter; and adjusting a commanded zero-sequence inverter output voltage (v 0 *) to adjust a midpoint voltage at the DC midpoint based on the measured DC current; characterised in that adjusting the commanded zero-sequence inverter output voltage (V 0 *) from the three level inverter to adjust the midpoint voltage based on the measured DC current further comprises: applying the commanded zero-sequence voltage (V 0 *) to the three level inverter, wherein the commanded zero-sequence inverter output voltage (V 0 *) for a given midpoint voltage feedback is proportional to the inverse of the DC current when the DC current exceeds a minimum threshold. receiving an input power signal at a three level motor controller system that includes a three level inverter; measuring, using a current sensor in the three level motor controller system, a DC current (Idc_sense) of the input power signal before the input power signal is provided to the three level inverter; and adjusting a commanded zero-sequence inverter output voltage (v 0 *) to adjust a midpoint voltage at the DC midpoint based on the measured DC current; characterised in that adjusting the commanded zero-sequence inverter output voltage (V 0 *) from the three level inverter to adjust the midpoint voltage based on the measured DC current further comprises: applying the commanded zero-sequence voltage (V 0 *) to the three level inverter, wherein the commanded zero-sequence inverter output voltage (V 0 *) for a given midpoint voltage feedback is proportional to the inverse of the DC current when the DC current exceeds a minimum threshold. applying the commanded zero-sequence voltage (V 0 *) to the three level inverter, wherein the commanded zero-sequence inverter output voltage (V 0 *) for a given midpoint voltage feedback is proportional to the inverse of the DC current when the DC current exceeds a minimum threshold.
Method for determining dimensions and/or position data of a tool (1; 11) which is clamped in a clamping device of a work spindle of a machine tool, wherein a radar signal is emitted and a radar signal back-scattered from the machining chamber is received by at least one radar module (3, 4; 12) and dimensions of the tool (1; 11) and/or position data of the tool with respect to the clamping device are determined from the signal received, characterised in that the radar module is arranged on the side of the work spindle facing the machining chamber of the machine tool, and in that the tool (1; 11) executes a predetermined movement relative to the radar module (3, 4; 12) or relative to a fixed reflecting surface by means of which signals from the tool (1; 11) are back-scattered indirectly by means of reflection to the radar module (3, 4; 12) and data of this movement is connected logically with the back-scattered signal to determine the dimensions and/or position data of the tool (1; 11), wherein the predetermined movement is a turning movement about an axis orthogonal to the normal vector of a reflecting surface, or a translation movement the direction of which comprises a component in the normal direction of a reflecting surface.
A machine-readable medium storing a set of instructions which, when executed by at least one processor, cause the at least one processor to perform a method comprising the steps of: obtaining a first X-ray image of at least a portion of a spine in a first plane; obtaining a second X-ray image of the at least a portion of a spine in a second plane; drawing a virtual curve through vertebral bodies of the at least a portion of a spine in the first X- ray image and in the second X-ray image so that each virtual curve passes through vertebral bodies of the at least a portion of a spine on the first X-ray image and the second X-ray image; combining the first and second X-ray images to construct a three-dimensional model of spatial coordinates describing the at least a portion of a spine based on the virtual curves drawn on the first and second X-ray images (212, 214); and determining parameters of a spinal device based on the three-dimensional model. obtaining a first X-ray image of at least a portion of a spine in a first plane; obtaining a second X-ray image of the at least a portion of a spine in a second plane; drawing a virtual curve through vertebral bodies of the at least a portion of a spine in the first X- ray image and in the second X-ray image so that each virtual curve passes through vertebral bodies of the at least a portion of a spine on the first X-ray image and the second X-ray image; combining the first and second X-ray images to construct a three-dimensional model of spatial coordinates describing the at least a portion of a spine based on the virtual curves drawn on the first and second X-ray images (212, 214); and determining parameters of a spinal device based on the three-dimensional model.
Machine (100, 200) for handling containers, comprising a rotatable handling table and a container inlet in frontal orientation or parallel orientation, further comprising a sawtooth star wheel for separating incoming containers at transport pitch of the handling table and for the tangential transfer of the containers onto the handling table; and an inlet conveyor belt with at least one lateral container guide for transferring the containers to the sawtooth star wheel, characterized in that the inlet conveyor belt and the lateral container guide run with lateral curvature to the saw-tooth star wheel, and the inlet conveyor belt is designed such that together with the inlet pitch of the sawtooth star wheel it defines an S-shaped transport path for the containers.
A liquid jetting device treatment liquid containing no colorant comprising: a N-alkyl-2-pyrrolidone represented by the following General Formula 1: where R represents an alkyl group having 8 to 11 carbon atoms, and a fluorine-containing surfactant, wherein the fluorine-containing surfactant is a compound having a Griffin's HLB value of 10 to 16 and represented by the following General Formula 2: C n F 2n+1 -CH 2 CH CH 2 O-(CH 2 CH 2 O) a -Y... General Formula 2 where n is an integer of 2 to 6, a is an integer of 15 to 50, Y represents -C b H 2b+1, where b is an integer of 11 to 19; or -CH 2 CH CH 2 -C m F 2m+1, where m is an integer of 2 to 6.
Carbonic anhydrase I, a carbonic anhydrase I-specific tolerogenic antigen presentation cell or a carbonic anhydrase I-specific regulatory T cell for use in a method of inducing immune tolerance and thereby treating or preventing inflammatory bowel disease.
A user terminal comprising: means for causing information acquisition relating to a radio environment of the user terminal; means for creating a carrier aggregation configuration on the basis of the acquired information, the carrier aggregation configuration comprising a plurality of aggregated cells of same relevance, which form cloud communication connections, implemented by at least one base station, wherein the same relevance of the aggregated cells implies that the radio resource control protocol connection of the user terminal is to any base station, or to all base stations, among the plurality of active base stations belonging to the carrier aggregation configuration; and means for causing information transmission relating to the carrier aggregation configuration to at least one base station implementing at least one aggregated cell. means for causing information acquisition relating to a radio environment of the user terminal; means for creating a carrier aggregation configuration on the basis of the acquired information, the carrier aggregation configuration comprising a plurality of aggregated cells of same relevance, which form cloud communication connections, implemented by at least one base station, wherein the same relevance of the aggregated cells implies that the radio resource control protocol connection of the user terminal is to any base station, or to all base stations, among the plurality of active base stations belonging to the carrier aggregation configuration; and means for causing information transmission relating to the carrier aggregation configuration to at least one base station implementing at least one aggregated cell.
A laser head lamp for a vehicle, comprising: a plurality of lamp modules each having a laser diode and configured to output at least one of a low beam and a high beam; and a processor configured to acquire turn-on time information of each of the plurality of lamp modules, and control the plurality of lamp modules based on the acquired information so that the plurality of lamp modules is turned on respectively, wherein the plurality of lamp modules comprises: a first lamp module group configured to generate the low beam; and a second lamp module group configured to generate the high beam, and wherein, when the processor determines that a turn-on time of the first lamp module group is greater than a turn-on time of the second lamp module group and that a difference between the turn-on time of the first lamp module group and the turn-on time of the second lamp module group exceeds a reference range, the processor is further configured to turn off the first lamp module group and turn on the second lamp module group so as to generate a low beam. a plurality of lamp modules each having a laser diode and configured to output at least one of a low beam and a high beam; and a processor configured to acquire turn-on time information of each of the plurality of lamp modules, and control the plurality of lamp modules based on the acquired information so that the plurality of lamp modules is turned on respectively, wherein the plurality of lamp modules comprises: a first lamp module group configured to generate the low beam; and a second lamp module group configured to generate the high beam, and wherein, when the processor determines that a turn-on time of the first lamp module group is greater than a turn-on time of the second lamp module group and that a difference between the turn-on time of the first lamp module group and the turn-on time of the second lamp module group exceeds a reference range, the processor is further configured to turn off the first lamp module group and turn on the second lamp module group so as to generate a low beam. a first lamp module group configured to generate the low beam; and a second lamp module group configured to generate the high beam, and wherein, when the processor determines that a turn-on time of the first lamp module group is greater than a turn-on time of the second lamp module group and that a difference between the turn-on time of the first lamp module group and the turn-on time of the second lamp module group exceeds a reference range, the processor is further configured to turn off the first lamp module group and turn on the second lamp module group so as to generate a low beam.
An implantable prosthetic heart valve device comprising: an elongated body having first and second end portions, the body being configured to be implanted around a native leaflet of a heart valve such that the first end portion is on an atrial side of the leaflet and the second end portion is on a ventricular side of the leaflet and such that the body can coapt with and move away from an opposing native leaflet during operation of the heart valve; and a fastener configured to be mounted on a suture that extends from one of the first or second end portions (108, 110), through the native leaflet and through the other of the first or second end portions (108, 110) such that the body is secured to the native leaflet; characterized in that the body comprises a tubular layer defining a lumen extending from the first end portion to the second end portion. an elongated body having first and second end portions, the body being configured to be implanted around a native leaflet of a heart valve such that the first end portion is on an atrial side of the leaflet and the second end portion is on a ventricular side of the leaflet and such that the body can coapt with and move away from an opposing native leaflet during operation of the heart valve; and a fastener configured to be mounted on a suture that extends from one of the first or second end portions (108, 110), through the native leaflet and through the other of the first or second end portions (108, 110) such that the body is secured to the native leaflet; characterized in that the body comprises a tubular layer defining a lumen extending from the first end portion to the second end portion.
A terminal information reporting method, wherein the method comprises: obtaining, by a first terminal, first information, wherein the first information comprises a first identifier which represents a timing relationship between a moment at which the first terminal triggers a measurement report and a timer T310 of the first terminal; characterized by sending, by the first terminal, the first information to a base station; wherein the timing relationship comprises that the first terminal triggers the measurement report during running of the timer T310 of the first terminal. obtaining, by a first terminal, first information, wherein the first information comprises a first identifier which represents a timing relationship between a moment at which the first terminal triggers a measurement report and a timer T310 of the first terminal; characterized by sending, by the first terminal, the first information to a base station; wherein the timing relationship comprises that the first terminal triggers the measurement report during running of the timer T310 of the first terminal.
A fluid-transfer article comprising: a first region for holding an aerosol precursor and for transferring said aerosol precursor to an activation surface of a second region of said article, said activation surface being disposed at an end of said article configured for thermal interaction with a heater of an aerosol-generation apparatus; wherein at least said second region is formed from a polymeric wicking material; characterised in that said polymeric wicking material is porous such that the fluid transfer article comprises a plurality of pores within the second region and at the activation surface, for carrying the aerosol precursor material through the second region to the activation surface. a first region for holding an aerosol precursor and for transferring said aerosol precursor to an activation surface of a second region of said article, said activation surface being disposed at an end of said article configured for thermal interaction with a heater of an aerosol-generation apparatus; wherein at least said second region is formed from a polymeric wicking material; characterised in that said polymeric wicking material is porous such that the fluid transfer article comprises a plurality of pores within the second region and at the activation surface, for carrying the aerosol precursor material through the second region to the activation surface.
A method for producing glycolide by heating a glycolic acid oligomer to depolymerize, the method comprising steps below: I. a step 1 of heating a mixture containing a glycolic acid oligomer having a terminal carboxyl group concentration of 400 eq/t or less and a polar organic solvent to a temperature for depolymerizing the glycolic acid oligomer under ambient pressure or reduced pressure; II. a step 2 of continuing the heating at the temperature for depolymerizing the glycolic acid oligomer and then codistilling out, together with the polar organic solvent, glycolide produced by the depolymerization from a depolymerization reaction system containing the mixture; and III. a step 3 of obtaining glycolide from the codistillation product, wherein the glycolic acid oligomer having the terminal carboxyl group concentration of 400 eq/t or less is prepared by a method for producing a glycolic acid oligomer comprising a condensing step of subjecting glycolic acid to condensation reaction by heating the glycolic acid as an aqueous solution at a temperature of from 100 to 250°C for 30 minutes to 15 hours while being stirred under ambient pressure or reduced pressure while water is distilled, and a dehydration step following the condensing step of continuing the condensation reaction of the glycolic acid by continuing the heating together with a polar organic solvent under ambient pressure or reduced pressure. I. a step 1 of heating a mixture containing a glycolic acid oligomer having a terminal carboxyl group concentration of 400 eq/t or less and a polar organic solvent to a temperature for depolymerizing the glycolic acid oligomer under ambient pressure or reduced pressure; II. a step 2 of continuing the heating at the temperature for depolymerizing the glycolic acid oligomer and then codistilling out, together with the polar organic solvent, glycolide produced by the depolymerization from a depolymerization reaction system containing the mixture; and III. a step 3 of obtaining glycolide from the codistillation product,
Steering method for an industrial truck having at least two driven wheels (2, 3; 4) running in different tracks in longitudinal travel, of which wheels at least one is steerable and at least one initially runs on the inside when cornering, the drive of the at least one wheel running on the inside during cornering being activated from the longitudinal travel position of the at least one steerable wheel (2, 3) when a specific steering angle is reached, characterized in that the drive power of the at least two driven wheels (2, 3; 4) is reduced when a specific steering angle of the at least one steerable wheel (2, 3) is reached, and in that the rotational speed of the at least one wheel initially running on the inside during cornering is recorded and the drive power of the at least two driven wheels (2, 3; 4) is increased again if a predetermined minimum rotational speed is not met.
A method for connecting a household appliance to a wireless home network, wherein network access information is transmitted from a user terminal to the household appliance by means of an optical code displayed on the user terminal, and wherein the household appliance logs on to the wireless home network by utilizing the received network access information, characterized in that a user starts an application installed on the user terminal and enters access data indicating the household appliance, wherein the application generates an optical code, into which the access data for the household appliance, the network access information for the home network and an application identification of the application are integrated, wherein the optical code is transmitted to the household appliance, and wherein the household appliance compares the access data, as well as the application identification, contained in the optical code with data stored in the household appliance, as well as an application identification stored in the household appliance, and in case of a match extracts the network access information from the optical code.
A power driver comprising: a housing; a transmission shaft mounted for rotation on the housing; a tool chuck having an input shaft mounted for rotation on the housing and supporting chuck jaws, and a chuck actuating shaft mounted for rotation on the input shaft; and a power take off mechanism connected to the tool chuck, the power take off mechanism being adjustable into a DRILL DRIVE MODE to rotationally drive the input shaft and the chuck actuating shaft together as a unit, and a CHUCK MODE to use the transmission shaft to rotationally drive the chuck actuating shaft relative to the input shaft; characterized in that the transmission shaft is a gear shaft that is rotationally locked to the input shaft when the power take off mechanism is in the DRILL DRIVE MODE. a housing; a transmission shaft mounted for rotation on the housing; a tool chuck having an input shaft mounted for rotation on the housing and supporting chuck jaws, and a chuck actuating shaft mounted for rotation on the input shaft; and a power take off mechanism connected to the tool chuck, the power take off mechanism being adjustable into a DRILL DRIVE MODE to rotationally drive the input shaft and the chuck actuating shaft together as a unit, and a CHUCK MODE to use the transmission shaft to rotationally drive the chuck actuating shaft relative to the input shaft;