mhurhangee/ep-ind-claims huggingface dataset:
A method for sending an end marker, characterized by comprising: receiving, by a source access node providing a service to a UE before the UE is handed over, AN, through a source next-generation3, NG3, path between the source AN and a core-network user-plane device, a first end marker from the core-network user-plane device, wherein the first end marker is used to indicate that sending downlink data of user equipment, UE, on the source NG3 path is completed; generating, by the source AN, N second end marker(s) based on the first end marker, wherein N is the number of source data radio bearer(s), DRB(s), corresponding to the source NG3 path; and sending, by the source AN, the N second end marker(s) to a target AN providing a service to the UE after the UE is handed over, through a forwarding path corresponding to the source NG3 path, wherein the forwarding path is used by the source AN to forward, to the target AN, data of the UE received through the source NG3 path. receiving, by a source access node providing a service to a UE before the UE is handed over, AN, through a source next-generation3, NG3, path between the source AN and a core-network user-plane device, a first end marker from the core-network user-plane device, wherein the first end marker is used to indicate that sending downlink data of user equipment, UE, on the source NG3 path is completed; generating, by the source AN, N second end marker(s) based on the first end marker, wherein N is the number of source data radio bearer(s), DRB(s), corresponding to the source NG3 path; and sending, by the source AN, the N second end marker(s) to a target AN providing a service to the UE after the UE is handed over, through a forwarding path corresponding to the source NG3 path, wherein the forwarding path is used by the source AN to forward, to the target AN, data of the UE received through the source NG3 path.
A method of manufacturing a foamed sulfur asphalt stabilized soil comprising the steps of: introducing an asphalt binder, elemental sulfur, foaming air, and foaming water into a foaming mixer, where the foaming water has a water introduction pressure, where the foaming air has an air introduction pressure, and where the water introduction pressure is greater than the air introduction pressure; operating the foaming mixer such that a foamed sulfur asphalt forms, where the foamed sulfur asphalt has an amount of elemental sulfur in a range of from 10% to 50% by weight of the combined amount of elemental sulfur and the asphalt binder, a foam half-life equal to or greater than 6 seconds and has a foam expansion ratio equal to or greater than 8, and where the foaming mixer operates at a temperature in a range of from 140 °C to 150 °C; introducing the foamed sulfur asphalt, an aggregate having a moisture content, and Portland cement into an aggregate mixer, wherein the foamed sulfur asphalt passes from the foaming mixer into the aggregate mixer and introduced to the aggregate in the aggregate mixer at a temperature no greater than 130 °C; and operating the aggregate mixer such that the foamed sulfur asphalt stabilized soil forms. introducing an asphalt binder, elemental sulfur, foaming air, and foaming water into a foaming mixer, where the foaming water has a water introduction pressure, where the foaming air has an air introduction pressure, and where the water introduction pressure is greater than the air introduction pressure; operating the foaming mixer such that a foamed sulfur asphalt forms, where the foamed sulfur asphalt has an amount of elemental sulfur in a range of from 10% to 50% by weight of the combined amount of elemental sulfur and the asphalt binder, a foam half-life equal to or greater than 6 seconds and has a foam expansion ratio equal to or greater than 8, and where the foaming mixer operates at a temperature in a range of from 140 °C to 150 °C; introducing the foamed sulfur asphalt, an aggregate having a moisture content, and Portland cement into an aggregate mixer, wherein the foamed sulfur asphalt passes from the foaming mixer into the aggregate mixer and introduced to the aggregate in the aggregate mixer at a temperature no greater than 130 °C; and operating the aggregate mixer such that the foamed sulfur asphalt stabilized soil forms.
A lithium-ion battery cell, comprising: - an enclosure comprising a casing and a lid, the enclosure having an electrolyte fill hole extending in an axial direction through a surface of the casing opposite the lid, wherein the electrolyte fill hole comprises a first diameter; - an electrochemical cell disposed within the enclosure; - a sealing patch laser welded to the surface of the casing around the electrolyte fill hole, wherein the sealing patch is configured to seal the electrolyte fill hole; - a laser weld between the sealing patch and the surface of the casing, wherein the laser weld is a partial penetration weld, characterized in that a depth of the partial penetration weld is between a quarter of a thickness of the casing around the electrolyte fill hole and three quarters of the thickness of the casing around the electrolyte fill hole; and - an epoxy disposed between the surface of the casing and the sealing patch around the electrolyte fill hole, wherein the epoxy is configured to seal cracks in the enclosure generated during formation of the laser weld. - an enclosure comprising a casing and a lid, the enclosure having an electrolyte fill hole extending in an axial direction through a surface of the casing opposite the lid, wherein the electrolyte fill hole comprises a first diameter; - an electrochemical cell disposed within the enclosure; - a sealing patch laser welded to the surface of the casing around the electrolyte fill hole, wherein the sealing patch is configured to seal the electrolyte fill hole; - a laser weld between the sealing patch and the surface of the casing, wherein the laser weld is a partial penetration weld, characterized in that a depth of the partial penetration weld is between a quarter of a thickness of the casing around the electrolyte fill hole and three quarters of the thickness of the casing around the electrolyte fill hole; and - an epoxy disposed between the surface of the casing and the sealing patch around the electrolyte fill hole, wherein the epoxy is configured to seal cracks in the enclosure generated during formation of the laser weld.
Method for mapping a data stream onto an SDI channel, said data stream comprising a sequence of m-bit words, a range of values from 0 to (2**n)-1 and from 2**m - 2**n to (2**m)-1 being excluded values on said SDI channel, characterised in that the method comprises the steps of a) grouping words of said sequence of m-bit words in a group of 2**g words, g being comprised between 0 and m-1; b) detecting if among said group of 2**g words, at least one word has g+1 MSB bits equal to 1; c) if said condition is true, storing a supplementary bit equal to 1 and recoding said g+1 MSB bits of said 2**g words by replacing said (g+1)*2**g bits having a value x by an equal number of bits having a value y through a function y=f(x) applying bijectively the set of possible values of x to a disjoint set of values y of (g+1)*2**g bits; d) if said condition is false, storing a supplementary bit equal to 0; e) repeating steps a-d a number k of times each time onto the next group of words; f) grouping said k supplementary bits into the LSBs of a number j of m-bit words wherein j is the integer part of (k+m-2)/(m-1); g) performing an addition modulo 2**m of a value s to said number j of m-bit words, and to said k*2**g m-bit words, where s is comprised between 2**n and (2**m-2**n) - ∑(2**(m-1-i)), where the sum is performed for i going from zero to g.; h) sending said number j of m-bit words and said k*2**g m-bit words over said SDI channel. a) grouping words of said sequence of m-bit words in a group of 2**g words, g being comprised between 0 and m-1; b) detecting if among said group of 2**g words, at least one word has g+1 MSB bits equal to 1; c) if said condition is true, storing a supplementary bit equal to 1 and recoding said g+1 MSB bits of said 2**g words by replacing said (g+1)*2**g bits having a value x by an equal number of bits having a value y through a function y=f(x) applying bijectively the set of possible values of x to a disjoint set of values y of (g+1)*2**g bits; d) if said condition is false, storing a supplementary bit equal to 0; e) repeating steps a-d a number k of times each time onto the next group of words; f) grouping said k supplementary bits into the LSBs of a number j of m-bit words wherein j is the integer part of (k+m-2)/(m-1); g) performing an addition modulo 2**m of a value s to said number j of m-bit words, and to said k*2**g m-bit words, where s is comprised between 2**n and (2**m-2**n) - ∑(2**(m-1-i)), where the sum is performed for i going from zero to g.; h) sending said number j of m-bit words and said k*2**g m-bit words over said SDI channel.
A genetically engineered T-cell that expresses a bispecific chimeric antigen receptor linked to truncated epidermal growth factor receptor (EGFRt), wherein the expression product has the amino acid sequence of SEQ ID No. 3 or 12.
A humanized antibody, or antigen binding fragments or conjugates thereof, which recognise and bind the same epitopes or epitope as the antibody 2EF produced by the hybridoma deposited in the Advanced Biotechnology Center with the number PD 08021 or as the antibody 2G10 produced by the hybridoma deposited in the Advanced Biotechnology Center with the number PD 08020 wherein said humanized antibody, or antigen biding fragments or conjugates thereof comprise a heavy chain variable region amino acid sequence comprising the sequence aa. 20-135 of SEQ ID NO:26 or SEQ ID NO:26 and a light chain variable region amino acid sequence comprising the sequence aa. 21-131 of SEQ ID NO:30 or SEQ ID NO:30, or comprise a heavy chain variable region amino acid sequence comprising the sequence aa. 20-138 of SEQ ID NO:32 or SEQ ID NO:32 or the sequence aa. 20-138 of SEQ ID NO:34 or SEQ ID NO:34 and a light chain variable region amino acid sequence comprising the sequence aa. 21-127 of SEQ ID NO:40 or SEQ ID NO:40.
A recording device comprising: a transportation path that transports a medium; a recording portion configured to move with respect to the transportation path in a direction intersecting with a recording surface of the medium, a moving mechanism that moves the recording portion; and a motor that causes the recording portion to move by transferring power to the moving mechanism, wherein the moving mechanism includes a first member on which a first rack is formed in a moving direction of the recording portion, a first pinion gear that is engaged with the first rack, a second rack that is provided at a position facing the first rack in the recording portion, formed in the moving direction of the recording portion, and engaged with the first pinion gear, and a second member in which the first pinion gear is rotatably provided that is configured to move in the moving direction by receiving the power of the motor. a transportation path that transports a medium; a recording portion configured to move with respect to the transportation path in a direction intersecting with a recording surface of the medium, a moving mechanism that moves the recording portion; and a motor that causes the recording portion to move by transferring power to the moving mechanism, wherein the moving mechanism includes a first member on which a first rack is formed in a moving direction of the recording portion, a first pinion gear that is engaged with the first rack, a second rack that is provided at a position facing the first rack in the recording portion, formed in the moving direction of the recording portion, and engaged with the first pinion gear, and a second member in which the first pinion gear is rotatably provided that is configured to move in the moving direction by receiving the power of the motor.
A handheld user interface device for controlling a robotic system, the user interface device comprising: a member (110, 210) a flexible housing (120, 220) having an inner housing wall (122, 222) and an outer housing wall (124, 224) and is at least partially disposed around the member, wherein the inner housing wall (122, 222) and the outer housing wall (124, 224) cooperate to define a volume (126,226) between the inner and outer housing walls (122, 222, 124, 224), wherein the flexible housing is configured to be held in the hand of a user; and at least one proximity sensor coupled to the member (110, 210) and configured to detect the user squeezing the flexible housing (120, 220) by sensing deformation of the inner housing wall (122, 222); and a tracking sensor system coupled to the member (110, 210) and configured to detect at least one of position and orientation of at least a portion of the device, wherein at least one of the detected squeezing of the flexible housing, detected position of the portion of the device, and detected orientation of the portion of the device is correlatable to a control of the robotic system. a member (110, 210) a flexible housing (120, 220) having an inner housing wall (122, 222) and an outer housing wall (124, 224) and is at least partially disposed around the member, wherein the inner housing wall (122, 222) and the outer housing wall (124, 224) cooperate to define a volume (126,226) between the inner and outer housing walls (122, 222, 124, 224), wherein the flexible housing is configured to be held in the hand of a user; and at least one proximity sensor coupled to the member (110, 210) and configured to detect the user squeezing the flexible housing (120, 220) by sensing deformation of the inner housing wall (122, 222); and a tracking sensor system coupled to the member (110, 210) and configured to detect at least one of position and orientation of at least a portion of the device, wherein at least one of the detected squeezing of the flexible housing, detected position of the portion of the device, and detected orientation of the portion of the device is correlatable to a control of the robotic system.
A computer-implemented method for optimizing well performance comprising: identifying a plurality of failure modes for a well; obtaining at least one technical limit associated with each of the plurality of failure modes, formulating an objective function for well performance optimization; and solving an optimization problem using the objective function and at least one technical limit to optimize well performance: characterised in that obtaining said at least one technical limit comprises generating a response surface including algorithms or equations that defines the technical limit for the failure mode from engineering or computational simulation models based on parametric studies of experimental design, and a coupled physics limit associated with a first failure mode and a second failure mode. identifying a plurality of failure modes for a well; obtaining at least one technical limit associated with each of the plurality of failure modes, formulating an objective function for well performance optimization; and solving an optimization problem using the objective function and at least one technical limit to optimize well performance: characterised in that obtaining said at least one technical limit comprises generating a response surface including algorithms or equations that defines the technical limit for the failure mode from engineering or computational simulation models based on parametric studies of experimental design, and a coupled physics limit associated with a first failure mode and a second failure mode. characterised in that obtaining said at least one technical limit comprises generating a response surface including algorithms or equations that defines the technical limit for the failure mode from engineering or computational simulation models based on parametric studies of experimental design, and a coupled physics limit associated with a first failure mode and a second failure mode.
An image processing apparatus comprising: outputting means configured to output an output product by executing a print job; storing means configured to store image data of the executed print job and job history information relating to the executed print job, wherein the job history information includes embedding management information indicating whether copy restriction information is embedded in the output product, and wherein the copy restriction information indicates whether copy from the output product is restricted; display means for displaying a list of previously executed print jobs based on the job history information stored in the storing means; selecting means for selecting at least one previously executed print job from the list of previously executed print jobs displayed on the display means; determining means for determining whether the embedding management information of the print job selected by the selecting means indicates that the copy restriction information is embedded in the output product; and control means configured, if the determining means determines that the embedding management information of the print job selected by the selecting means indicates that the copy restriction information is embedded in the output product, to restrict the outputting means from outputting an output product by re-executing the print job in accordance with the copy restriction information of the selected print job. outputting means configured to output an output product by executing a print job; storing means configured to store image data of the executed print job and job history information relating to the executed print job, wherein the job history information includes embedding management information indicating whether copy restriction information is embedded in the output product, and wherein the copy restriction information indicates whether copy from the output product is restricted; display means for displaying a list of previously executed print jobs based on the job history information stored in the storing means; selecting means for selecting at least one previously executed print job from the list of previously executed print jobs displayed on the display means; determining means for determining whether the embedding management information of the print job selected by the selecting means indicates that the copy restriction information is embedded in the output product; and control means configured, if the determining means determines that the embedding management information of the print job selected by the selecting means indicates that the copy restriction information is embedded in the output product, to restrict the outputting means from outputting an output product by re-executing the print job in accordance with the copy restriction information of the selected print job.
A snowboard binding including a baseplate, a bearing highback rotatable relative to the baseplate, a pedal to operate the bearing highback at clip-in between an opening position and a closing position and a means (15, 16) to lock the rotation of the bearing highback relative to the baseplate in closing position against the elastic return of a lever (13, 13a, 13b), wherein the means comprises two ratchet notches, characterized in that it comprises a lug that is received into a fork of the means (15, 16) with notches or of the lever to rotate the means with notches or the lever by disengaging the lever from one of the notches and by engaging it with the other notch at clip-in.
An immunogenic formulation that confers protection against infection by metapneumovirus (hMPV) and/or attenuates the pathogenicity caused by hMPV, characterized in that the formulation comprises a recombinant attenuated Mycobacterium Bacillus Calmette-Guerin Danish strain in an amount that ranges from 10 4 to 10 9 bacteria (CFU/dose), wherein said strain express the P-protein from hMPV subtype A, in a pharmacologically appropriate saline buffer.
A molding device for continuous casting equipped with an agitator which receives liquid-phase melt of a conductive material and from which a solid-phase cast product is taken out through the cooling of the melt, the molding device comprising: a casting mold including a casting space (2A) that includes an inlet (2A 1) and an outlet (2A 2) at a central portion of a cylindrical side wall and a magnetic field generation device receiving chamber that is formed in the side wall and is positioned outside the casting space (2A); characterized in that an agitator is provided so as to correspond to the casting mold, the agitator including an electrode unit that includes first and second electrodes (32A, 32B) supplying current to at least the liquid-phase melt present in the casting space, and a magnetic field generation device having a permanent magnet that applies a magnetic field to the liquid-phase melt, wherein the magnetic field generation device is received in the magnetic field generation device receiving chamber of the casting mold and in that the opening of the magnetic field generation device receiving chamber is closed by a lid, and the magnetic field generation device receiving chamber functions as a cooling chamber that allows the flow of cooling water, and the magnetic field generation device is provided in the magnetic field generation device receiving chamber so that the position of the magnetic field generation device is adjustable in a vertical direction according to the position of an interface between liquid-phase melt and a solid-phase product present in the casting space. a casting mold including a casting space (2A) that includes an inlet (2A 1) and an outlet (2A 2) at a central portion of a cylindrical side wall and a magnetic field generation device receiving chamber that is formed in the side wall and is positioned outside the casting space (2A); characterized in that an agitator is provided so as to correspond to the casting mold, the agitator including an electrode unit that includes first and second electrodes (32A, 32B) supplying current to at least the liquid-phase melt present in the casting space, and a magnetic field generation device having a permanent magnet that applies a magnetic field to the liquid-phase melt, wherein the magnetic field generation device is received in the magnetic field generation device receiving chamber of the casting mold and in that the opening of the magnetic field generation device receiving chamber is closed by a lid, and the magnetic field generation device receiving chamber functions as a cooling chamber that allows the flow of cooling water, and the magnetic field generation device is provided in the magnetic field generation device receiving chamber so that the position of the magnetic field generation device is adjustable in a vertical direction according to the position of an interface between liquid-phase melt and a solid-phase product present in the casting space.
An improved electrochemical coagulation process for the removal of nitrates from the drinking water, using an electrochemical flow cell consisting of at least one anode and a cathode of aluminium alloy, the said process comprising of: (i) subjecting nitrate contaminated drinking water to electrolysis in an electrochemical flow cell at a temperature in the range of 20-80°C; (ii) adsorption of the nitrates by aluminium hydroxide as a coagulant formed in-situ in a flow cell by anode oxidation during electrolysis by maintaining the anode and cathode current density in the range of 0.1-0.5 A.dm -2 for obtaining the desired drinking water; (iii) removal of adsorbed nitrates by filtration. (i) subjecting nitrate contaminated drinking water to electrolysis in an electrochemical flow cell at a temperature in the range of 20-80°C; (ii) adsorption of the nitrates by aluminium hydroxide as a coagulant formed in-situ in a flow cell by anode oxidation during electrolysis by maintaining the anode and cathode current density in the range of 0.1-0.5 A.dm -2 for obtaining the desired drinking water; (iii) removal of adsorbed nitrates by filtration.