mhurhangee/ep-ind-claims huggingface dataset:
A method for dismantling a tire comprising: providing a tire including a tire frame member formed of a thermoplastic resin and a rubber layer, that is vulcanization bonded to an outer face of the tire frame member, an opening-out process of cutting the tire along a width direction to make the tire into a belt shape; and a slicing process of slicing the belt shaped tire along an interface of the rubber layer with the tire frame member, wherein: a reinforcing member is laid up at a tire radial direction outside of the tire frame member; the rubber layer is provided at the tire radial direction outside of the reinforcing member, and in the slicing process, the tire frame member is sliced further toward a tire radial direction inside than the reinforcing member. providing a tire including a tire frame member formed of a thermoplastic resin and a rubber layer, that is vulcanization bonded to an outer face of the tire frame member, an opening-out process of cutting the tire along a width direction to make the tire into a belt shape; and a slicing process of slicing the belt shaped tire along an interface of the rubber layer with the tire frame member, wherein: a reinforcing member is laid up at a tire radial direction outside of the tire frame member; the rubber layer is provided at the tire radial direction outside of the reinforcing member, and in the slicing process, the tire frame member is sliced further toward a tire radial direction inside than the reinforcing member. a reinforcing member is laid up at a tire radial direction outside of the tire frame member; the rubber layer is provided at the tire radial direction outside of the reinforcing member, and in the slicing process, the tire frame member is sliced further toward a tire radial direction inside than the reinforcing member.
An apparatus comprising a host bridge device, the host bridge device comprising: a means for receiving a plurality of strongly ordered write transactions from one or more strongly ordered producer devices; a means for issuing the plurality of strongly ordered write transactions to one or more consumer devices within a weakly ordered domain; a means for detecting a first write transaction of the plurality of strongly ordered write transactions that is not accepted by a first consumer device of the one or more consumer devices; and characterised by: a means for sending a cancellation message to the respective consumer device for each of one or more write transactions issued subsequent to the first write transaction and accepted by a respective consumer device of the one or more consumer devices; and a means for replaying the first write transaction and the one or more write transactions that were issued subsequent to the first write transaction. a means for receiving a plurality of strongly ordered write transactions from one or more strongly ordered producer devices; a means for issuing the plurality of strongly ordered write transactions to one or more consumer devices within a weakly ordered domain; a means for detecting a first write transaction of the plurality of strongly ordered write transactions that is not accepted by a first consumer device of the one or more consumer devices; and characterised by: a means for sending a cancellation message to the respective consumer device for each of one or more write transactions issued subsequent to the first write transaction and accepted by a respective consumer device of the one or more consumer devices; and a means for replaying the first write transaction and the one or more write transactions that were issued subsequent to the first write transaction. a means for sending a cancellation message to the respective consumer device for each of one or more write transactions issued subsequent to the first write transaction and accepted by a respective consumer device of the one or more consumer devices; and a means for replaying the first write transaction and the one or more write transactions that were issued subsequent to the first write transaction.
Method for controlling the voltage of a catenary supplying electric power to rolling stocks, each rolling stock comprising a motor drive, characterized in that the method comprises the steps executed by a first rolling stock of: - detecting a traction command or a regeneration command of a second rolling stock in the neighborhood of first rolling stock, - increasing the electric power supplied by the first rolling stock to the motor drive of the first rolling stock when a regeneration command of the second rolling stock is detected and if the first rolling stock is in a coasting mode, - decreasing the electric power supplied by the first rolling stock to the motor drive of the first rolling stock when a traction command of the second rolling stock is detected and if the first rolling stock is in a coasting mode,. - detecting a traction command or a regeneration command of a second rolling stock in the neighborhood of first rolling stock, - increasing the electric power supplied by the first rolling stock to the motor drive of the first rolling stock when a regeneration command of the second rolling stock is detected and if the first rolling stock is in a coasting mode, - decreasing the electric power supplied by the first rolling stock to the motor drive of the first rolling stock when a traction command of the second rolling stock is detected and if the first rolling stock is in a coasting mode,.
A self-powered switch, comprising: a control panel (15, 15A-15D) arranged to generate a wireless control signal; a switch panel (12, 12A-12D) arranged to be actuated to generate a mechanical energy; and a micro generator (14, 14A-14D) operatively linked to said switch panel, wherein said micro generator comprises a magnet assembly (144, 144A-144D) and a coil assembly which are arranged to be moved in relation to each other to transform said mechanical energy into an electrical energy for powering said control panel so as to activate said control panel in a batteryless manner, characterized in that said control panel comprises a signal generator (151A, 151D) for generating the wireless control signal, an energy storage operatively linked to said micro generator for storing the electrical energy generated by said micro generator and a rectifier (153A, 153D) operatively linked to said energy storage for rectifying the electrical energy stored in said energy storage to usable energy for said signal generator, wherein said control panel further comprises an inductor, and said energy storage comprises a first capacitor and a second capacitor, and the rectifier is operated to repeatedly charge and discharge said energy storage via said inductor to prolong the operation time to be larger than 6 ms.
Calibration method for a test holder for testing RF modules which have an asymmetrical construction with respect to their RF ports, having the following steps: - TRL calibration of the test holder using a set of non-optimal THRU, REFLECT and LINE calibration standards which, for this purpose, are inserted into the test socket of the test holder, the use of the non-optimal calibration standards resulting in a shift of the reference plane with respect to the measured scattering parameters in the test holder, - determination of the scattering parameters by THRU calibration standards derived from the non-optimal THRU calibration standard, in each case in measuring stations separate from the test holder to be calibrated, - reversal of the reference plane shift by determining correction parameters from the measurement at the separate measuring stations, with which the scattering parameters measured in the test holder on the RF module are corrected, characterized in that - the calibration standards derived from the non-optimal THRU calibration standard are generated by symmetrically doubling one half in each case, the scattering parameters of the calibration standards derived in this manner being determined at measuring stations which are derived from the test holder to be calibrated by symmetrically doubling one half of the test holder in each case, and - the correction parameters used to reverse the reference plane shift are each half composed of the measured scattering parameters of the two derived calibration standards. - TRL calibration of the test holder using a set of non-optimal THRU, REFLECT and LINE calibration standards which, for this purpose, are inserted into the test socket of the test holder, the use of the non-optimal calibration standards resulting in a shift of the reference plane with respect to the measured scattering parameters in the test holder, - determination of the scattering parameters by THRU calibration standards derived from the non-optimal THRU calibration standard, in each case in measuring stations separate from the test holder to be calibrated, - reversal of the reference plane shift by determining correction parameters from the measurement at the separate measuring stations, with which the scattering parameters measured in the test holder on the RF module are corrected, characterized in that - the calibration standards derived from the non-optimal THRU calibration standard are generated by symmetrically doubling one half in each case, the scattering parameters of the calibration standards derived in this manner being determined at measuring stations which are derived from the test holder to be calibrated by symmetrically doubling one half of the test holder in each case, and - the correction parameters used to reverse the reference plane shift are each half composed of the measured scattering parameters of the two derived calibration standards.
A method of monitoring a powder layer distributed by a moving powder distributor in a build chamber, the method comprising: receiving, by a processing device, image data corresponding to a plurality of images of the powder layer supported by a powder bed within the build chamber from one or more imaging devices (114a, 114b) positioned adjacent to the build chamber to image the powder bed; determining, by the processing device, a leading region of interest located adjacent to a leading end of the moving powder distributor, the leading region of interest moving according to movement of the moving powder distributor; determining, by the processing device, a trailing region of interest located adjacent to a trailing end of the moving powder distributor, the trailing region of interest moving according to the moving powder distributor; selecting, by the processing device, at least one point on the powder bed that is located in the leading region of interest from the image data; determining, by the processing device, one or more first characteristics of the at least one point; when the at least one point is located within the trailing region of interest due to movement of the moving powder distributor, determining, by the processing device, one or more second characteristics of the at least one point; and comparing, by the processing device, the one or more first characteristics of the at least one point to the one or more second characteristics of the at least one point to monitor the powder layer distributed by the moving powder distributor. receiving, by a processing device, image data corresponding to a plurality of images of the powder layer supported by a powder bed within the build chamber from one or more imaging devices (114a, 114b) positioned adjacent to the build chamber to image the powder bed; determining, by the processing device, a leading region of interest located adjacent to a leading end of the moving powder distributor, the leading region of interest moving according to movement of the moving powder distributor; determining, by the processing device, a trailing region of interest located adjacent to a trailing end of the moving powder distributor, the trailing region of interest moving according to the moving powder distributor; selecting, by the processing device, at least one point on the powder bed that is located in the leading region of interest from the image data; determining, by the processing device, one or more first characteristics of the at least one point; when the at least one point is located within the trailing region of interest due to movement of the moving powder distributor, determining, by the processing device, one or more second characteristics of the at least one point; and comparing, by the processing device, the one or more first characteristics of the at least one point to the one or more second characteristics of the at least one point to monitor the powder layer distributed by the moving powder distributor.
A permanently closed containment pant comprising, an elastically extensible chassis defining a waist opening, a first leg opening, and a second leg opening, the waist opening comprising a front waist region joined with a back waist region, and a sling positioned within the chassis and being joined to the front waist region and the back waist region, wherein the sling comprises a fluid-impervious base sheet formed from a fabric, a first containment flap formed from a fabric, and a second containment flap formed from a fabric, wherein the first containment flap is curved and comprises a first end and a second end, the second containment flap is curved and comprises a first end and a second end, wherein the first end of the first containment flap is joined to the first end of the second containment flap and the second end of the first containment flap is joined to the second end of the second containment flap, wherein the first containment flap and second containment flap each joined with the base sheet to create a fluid-impervious pouch, wherein the base sheet is a first fabric laminated with polyurethane to define a polyurethane surface and a fabric surface and the containment flap is a second fabric laminated with polyurethane to define a second fabric surface and a second polyurethane surface wherein the first polyurethane surface is joined with the second polyurethane surface.
A method of attaching a torsion drive spring to a housing in an injection device comprising said housing for containing in use a syringe or cartridge of medicament, a rotary drive shaft for being rotated by an adjustable preset amount to express a corresponding amount of medicament in use, and said spring anchored at one end region relative to said drive shaft and at the other end with respect to said housing, wherein the method comprises providing respective complementary formations on said other end of the spring and a cooperating portion of the housing and inserting said spring into said housing, characterized by rotating said spring and said housing relative to each other thereby to secure said spring relative to said housing.
A battery cell assembly, comprising: - a housing having a top and a bottom portion opposite the top, wherein the housing is configured to fully enclose an electrochemical cell, wherein the top comprises a first flanged opening and a second flanged opening, wherein the first flanged opening and the second flanged opening each extend from an outside surface of the housing, wherein the bottom portion of the housing is configured to be sealed by a bottom cover; - the electrochemical cell disposed in the housing such that the electrochemical cell is completely enclosed by the housing, the electrochemical cell having a first terminal and a second terminal, the first terminal extending through the first flanged opening and the second terminal extending through the second flanged opening; and - a first sealing ring disposed around the first flanged opening to exert a compressive force radially inward on the first flanged opening for hermetically sealing the first flanged opening and a second sealing ring disposed around the second flanged opening to exert a compressive force radially inward on the second flanged opening for hermetically sealing the second flanged opening, wherein the housing comprises a plastic material, the first terminal is in direct contact with the first flanged opening, and the second terminal is in direct contact with the second flanged opening. - a housing having a top and a bottom portion opposite the top, wherein the housing is configured to fully enclose an electrochemical cell, wherein the top comprises a first flanged opening and a second flanged opening, wherein the first flanged opening and the second flanged opening each extend from an outside surface of the housing, wherein the bottom portion of the housing is configured to be sealed by a bottom cover; - the electrochemical cell disposed in the housing such that the electrochemical cell is completely enclosed by the housing, the electrochemical cell having a first terminal and a second terminal, the first terminal extending through the first flanged opening and the second terminal extending through the second flanged opening; and - a first sealing ring disposed around the first flanged opening to exert a compressive force radially inward on the first flanged opening for hermetically sealing the first flanged opening and a second sealing ring disposed around the second flanged opening to exert a compressive force radially inward on the second flanged opening for hermetically sealing the second flanged opening, wherein the housing comprises a plastic material, the first terminal is in direct contact with the first flanged opening, and the second terminal is in direct contact with the second flanged opening.
A ceramic honeycomb filter comprising a ceramic honeycomb structure having porous partition walls defining a plurality of flow paths for flowing an exhaust gas through said porous partition walls to remove particulates from said exhaust gas, predetermined flow paths among said flow paths being sealed at their ends, flow paths near an outer peripheral wall being sealed by sealers (12a, 12b) at both ends, and said flow paths having both ends sealed existing within a range of a radial length corresponding to 5 times the partition wall pitch at maximum from the outer periphery toward the center of said filter, characterized in that the length of the sealers (12a, 12b) sealing both ends of the flow paths from a filter end surface near said outer peripheral wall of the filter is 3.3% or less of the total length of the filter.
An anti-4-1BB antibody or antigen-binding fragment thereof, comprising: a heavy chain variable domain comprising a sequence of SEQ ID NO: 14; and a light chain variable domain comprising a sequence of SEQ ID NO: 10.
A method for forming packages, comprising the steps of: - folding a packaging film into the form of a tubular sleeve elongated in a reference direction, - carrying out four longitudinal welds (18, 38) on said tubular sleeve so as to form four longitudinal ribs (26, 28) parallel to said reference direction, - carrying out first transversal welds on the tubular sleeve and transversely cutting said tubular sleeve in proximity to said first transversal welds so as to form a succession of individual bags closed at a first end and with a second end open, - closing the second ends of said bags by means of respective second transversal welds (20"), the method being characterized in that it further comprises, before the step of closing the second ends of said bags, the steps of: - forming ordered groups of products, each of which includes a plurality of products having respective product axes arranged with the same orientation with respect to said reference direction, - inserting said groups of ordered products into respective bags. - folding a packaging film into the form of a tubular sleeve elongated in a reference direction, - carrying out four longitudinal welds (18, 38) on said tubular sleeve so as to form four longitudinal ribs (26, 28) parallel to said reference direction, - carrying out first transversal welds on the tubular sleeve and transversely cutting said tubular sleeve in proximity to said first transversal welds so as to form a succession of individual bags closed at a first end and with a second end open, - closing the second ends of said bags by means of respective second transversal welds (20"), - forming ordered groups of products, each of which includes a plurality of products having respective product axes arranged with the same orientation with respect to said reference direction, - inserting said groups of ordered products into respective bags.
Transfer apparatus for transferring incoming articles at one pitch on an article supply conveyor and in groups to containers on another conveyor at a different pitch, and comprising; at least one article supply conveyor (14, 16) conveying articles at one pitch in a machine direction at least one container conveyor conveying containers at another pitch in one direction; an end-of-arm tool moveable operationally between said conveyors (14, 16, 18) but not itself moveable in said machine direction; a plurality of individual article picking and grouping grippers (20, 22, 24,26) on said end-of-arm tooling; and linear motors (28, 30, 32, 34) driving said grippers independently along said end-of-arm tooling in a machine direction at said one pitch for picking articles from said article supply conveyor (14, 16), and in pitch adjusted article groups for placement in containers at said other pitch on said container conveyor.
A method performed by a terminal (2a-15) in a wireless communication system, the method comprising: receiving (2b-50), from a base station (2a-10), a radio resource control, RRC, message for an RRC connection; identifying whether the RRC message includes information associated with a pathloss reference downlink beam; determining a pathloss based on the information associated with the pathloss reference downlink beam, in case that the RRC message includes the information associated with the pathloss reference downlink beam; determining the pathloss based on a currently used new radio synchronization signal, NR-SS, block, in case that the RRC message does not include the information associated with the pathloss reference downlink beam; obtaining a power headroom, PH, based on the pathloss; and transmitting, to the base station, a power headroom report, PHR, including the PH. receiving (2b-50), from a base station (2a-10), a radio resource control, RRC, message for an RRC connection; identifying whether the RRC message includes information associated with a pathloss reference downlink beam; determining a pathloss based on the information associated with the pathloss reference downlink beam, in case that the RRC message includes the information associated with the pathloss reference downlink beam; determining the pathloss based on a currently used new radio synchronization signal, NR-SS, block, in case that the RRC message does not include the information associated with the pathloss reference downlink beam; obtaining a power headroom, PH, based on the pathloss; and transmitting, to the base station, a power headroom report, PHR, including the PH.