mhurhangee/ep-ind-claims huggingface dataset:
A memory cell having a 2T-2C configuration, the memory cell comprising: a first transistor comprising a first vertically extending pillar having a first channel region therein and gate material extending vertically along the first channel region, the first vertically extending pillar extending to a first comparative bitline (BL-1); a second transistor comprising a second vertically extending pillar having a second channel region therein and gate material extending vertically along the second channel region, the second vertically extending pillar extending to a second comparative bitline (BL-2); a first capacitor (CAP-1) vertically displaced relative to the first transistor, the first capacitor (CAP-1) having a first node electrically coupled with a source/drain region of the first transistor, having a second node electrically coupled with a common plate structure, and having a first capacitor dielectric material between the first and second nodes; a second capacitor (CAP-2) vertically displaced relative to the second transistor, the second capacitor (CAP-2) having a third node electrically coupled with a source/drain region of the second transistor, having a fourth node electrically coupled with the common plate structure, and having a second capacitor dielectric material between the third and fourth nodes (20, 22); and characterised in that the first and second transistors (T1, T2), and the first and second capacitors (CAP-1, CAP-2), are all vertically stacked one atop another. a first transistor comprising a first vertically extending pillar having a first channel region therein and gate material extending vertically along the first channel region, the first vertically extending pillar extending to a first comparative bitline (BL-1); a second transistor comprising a second vertically extending pillar having a second channel region therein and gate material extending vertically along the second channel region, the second vertically extending pillar extending to a second comparative bitline (BL-2); a first capacitor (CAP-1) vertically displaced relative to the first transistor, the first capacitor (CAP-1) having a first node electrically coupled with a source/drain region of the first transistor, having a second node electrically coupled with a common plate structure, and having a first capacitor dielectric material between the first and second nodes; a second capacitor (CAP-2) vertically displaced relative to the second transistor, the second capacitor (CAP-2) having a third node electrically coupled with a source/drain region of the second transistor, having a fourth node electrically coupled with the common plate structure, and having a second capacitor dielectric material between the third and fourth nodes (20, 22); and characterised in that the first and second transistors (T1, T2), and the first and second capacitors (CAP-1, CAP-2), are all vertically stacked one atop another.
A system, comprising: a first network element (AoC Function, IMS-GW) configured to detect a type of an advice of charge service requested by a user equipment, the first network element being further configured to send a credit control request message indicating the detected type of the requested advice of charge service to a charging system, and a second network element (S-CSCF, 61) configured to send a session initiation protocol invite message containing, in a header of the session initiation protocol invite message, the type of the requested advice of charge service to the first network element, wherein the first network element is configured to: detect the type of an advice of charge service requested by the user equipment from the session initiation protocol invite message received from the second network element, receive a credit control answer message including information related to the detected type of the requested advice of charge service from the charging system; and forward the information related to the detected type of the requested advice of charge service received from the charging system to the second network element, and wherein the second network element is further configured to receive the information related to the detected type of the requested advice of charge service forwarded by the first network element. a first network element (AoC Function, IMS-GW) configured to detect a type of an advice of charge service requested by a user equipment, the first network element being further configured to send a credit control request message indicating the detected type of the requested advice of charge service to a charging system, and a second network element (S-CSCF, 61) configured to send a session initiation protocol invite message containing, in a header of the session initiation protocol invite message, the type of the requested advice of charge service to the first network element, wherein the first network element is configured to: detect the type of an advice of charge service requested by the user equipment from the session initiation protocol invite message received from the second network element, receive a credit control answer message including information related to the detected type of the requested advice of charge service from the charging system; and forward the information related to the detected type of the requested advice of charge service received from the charging system to the second network element, detect the type of an advice of charge service requested by the user equipment from the session initiation protocol invite message received from the second network element, receive a credit control answer message including information related to the detected type of the requested advice of charge service from the charging system; and forward the information related to the detected type of the requested advice of charge service received from the charging system to the second network element, and wherein the second network element is further configured to receive the information related to the detected type of the requested advice of charge service forwarded by the first network element.
An antimicrobial composition comprising: (a) hydrogen peroxide in an amount of from about 0.1% to about 20% by weight; (b) N-butyl-gamma-butyrolactam in an amount of from about 0.1% to about 65% by weight based on total weight of the composition; and (c) optionally, at least one of the following ingredient: water, peroxygen stabilizing agent, anionic surfactant, nonionic surfactant, amphoteric surfactant, cationic surfactant, solvent, pH adjusting agent, chelating agent, buffering agent, hydrotrope, skin conditioning agent, anti-foaming agent, additional antimicrobial agent, or any combination thereof; where "about" refers to variations of +/- 5% of the expressed value. (a) hydrogen peroxide in an amount of from about 0.1% to about 20% by weight; (b) N-butyl-gamma-butyrolactam in an amount of from about 0.1% to about 65% by weight based on total weight of the composition; and (c) optionally, at least one of the following ingredient: water, peroxygen stabilizing agent, anionic surfactant, nonionic surfactant, amphoteric surfactant, cationic surfactant, solvent, pH adjusting agent, chelating agent, buffering agent, hydrotrope, skin conditioning agent, anti-foaming agent, additional antimicrobial agent, or any combination thereof;
A method of detecting the presence of a recombinant polypeptide comprising a modification, the method comprising incubating a sample including the recombinant polypeptide comprising the modification with a capture agent that selectively binds the modification under conditions allowing selective binding of the capture agent to the modification thereby forming a polypeptide-agent complex, wherein the modification associated with the recombinant polypeptide is selected from at least one of HESylation, starchylation or polysialylation; purifying the polypeptide-agent complex from the sample; and assaying for (i) the presence of the recombinant polypeptide using a non-specific polypeptide assay and/or (ii) polypeptide activity in the purified polypeptide-agent complex, wherein detection of the recombinant polypeptide and/or the polypeptide activity is indicative of the presence of the recombinant polypeptide comprising the modification. incubating a sample including the recombinant polypeptide comprising the modification with a capture agent that selectively binds the modification under conditions allowing selective binding of the capture agent to the modification thereby forming a polypeptide-agent complex, wherein the modification associated with the recombinant polypeptide is selected from at least one of HESylation, starchylation or polysialylation; purifying the polypeptide-agent complex from the sample; and assaying for (i) the presence of the recombinant polypeptide using a non-specific polypeptide assay and/or (ii) polypeptide activity in the purified polypeptide-agent complex, wherein detection of the recombinant polypeptide and/or the polypeptide activity is indicative of the presence of the recombinant polypeptide comprising the modification.
A method for quantitation of a target protein or peptide in a sample by mass spectroscopy, the method comprising preparing internal standard heavy isotope labeled peptides using at least one set of multiplexed heavy peptide internal standards, wherein each peptide within the at least one set contains the same amino acid sequence, but the peptides within the set differ from each other by a mass defect created by incorporating heavy isotopes on different atoms within at least one amino acid sequence resulting in internal standard heavy isotope labeled peptides, wherein heavy peptide internal standards within each set contain mass differences between each peptide that are less than 1 Dalton and quantitating at least one target protein or peptide using the multiplexed internal standard heavy isotope labeled peptides, which are synthesized as a mixture by combining heavy isotope labeled amino acid precursors or solid phase supports that have been preactivated with heavy isotope labeled precursors at predefined ratios, e.g. wherein the sample is a biological sample and the method is used for a diagnostic assay.
A building material composition, wherein the building material composition contains - at least one polymer dispersion or a corresponding redispersion powder, - polystyrene particles, - particles of vulcanized natural rubber, vulcanized synthetic rubber, thermoplastic rubber or mixtures thereof, and - synthetic hollow microbeads formed based on organic polymers and wherein the building material composition contains bitumen and ceramic hollow microbeads at most in an amount of 10 ppm. - at least one polymer dispersion or a corresponding redispersion powder, - polystyrene particles, - particles of vulcanized natural rubber, vulcanized synthetic rubber, thermoplastic rubber or mixtures thereof, and - synthetic hollow microbeads formed based on organic polymers
Process for manufacturing a multiblock polymer having a polycarbonate block comprising: ▪ a step of introducing, into a reactor: ∘ a monomer of formula: in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula: in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of and; ▪ a step of introducing, into the reactor, a diol monomer or a triol monomer or a mixture of and, and both being different from and; ▪ the mole ratio in the reactor of and relative to and corresponding to the following formula: A 1 2 + A 2 2 / B 1 2 + B 2 3 < 1, ▪ a subsequent step of polycondensation by transesterification of the monomers and dimers,, and to obtain an oligocarbonate polyol with a molar mass (M n) of less than 5000 g/mol and at least two chain end groups of hydroxyl type, in which the molar mass is determined by size exclusion chromatography as indicated in the description, ▪ a step of recovering the oligocarbonate polyol, ▪ a step of reacting the oligocarbonate polyol with either: ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, or: ∘ one or more oligoether diols, and with ∘ one or more coupling agents. ▪ a step of introducing, into a reactor: ∘ a monomer of formula: in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula: in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of and; ∘ a monomer of formula: in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula: in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of and; ▪ a step of introducing, into the reactor, a diol monomer or a triol monomer or a mixture of and, and both being different from and; ▪ the mole ratio in the reactor of and relative to and corresponding to the following formula: A 1 2 + A 2 2 / B 1 2 + B 2 3 < 1, ▪ a subsequent step of polycondensation by transesterification of the monomers and dimers,, and to obtain an oligocarbonate polyol with a molar mass (M n) of less than 5000 g/mol and at least two chain end groups of hydroxyl type, in which the molar mass is determined by size exclusion chromatography as indicated in the description, ▪ a step of recovering the oligocarbonate polyol, ▪ a step of reacting the oligocarbonate polyol with either: ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, or: ∘ one or more oligoether diols, and with ∘ one or more coupling agents. ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, ∘ one or more oligoether diols, and with ∘ one or more coupling agents.
A transformational toy, comprising: at least six polyhedron bodies, at least one connection strip for connecting the polyhedron bodies in a chain, wherein the connection strip provides hinges between every pair of adjacent polyhedron bodies (20, 22) of the chain, wherein the hinges facilitate movement of the polyhedron bodies between at least two different geometric transformations (G, G') of a combined body of all polyhedron bodies, at least one magnet placed inside each of the polyhedron bodies to maintain the combined body in each of the at least two different transformations (G, G'), characterised in that at least one of the connection strips is connecting at least three adjacent polyhedron bodies, therewith forming a hinge between every pair of adjacent polyhedron bodies (20, 22). at least six polyhedron bodies, at least one connection strip for connecting the polyhedron bodies in a chain, wherein the connection strip provides hinges between every pair of adjacent polyhedron bodies (20, 22) of the chain, wherein the hinges facilitate movement of the polyhedron bodies between at least two different geometric transformations (G, G') of a combined body of all polyhedron bodies, at least one magnet placed inside each of the polyhedron bodies to maintain the combined body in each of the at least two different transformations (G, G'), characterised in that at least one of the connection strips is connecting at least three adjacent polyhedron bodies, therewith forming a hinge between every pair of adjacent polyhedron bodies (20, 22).
Fastening arrangement comprising an anti-friction bearing sensor with a housing and a signal pick-up which is arranged such that it is secured against rotation in the housing and can be arranged with the housing in a receptacle in a stationary part of an anti-friction bearing or in a stationary component which adjoins an anti-friction bearing, it being possible for the anti-friction bearing sensor to be fastened in the receptacle by means of one or more cone elements, and a clamping screw being provided which can be screwed into a threaded bore which is assigned to the receptacle, which clamping screw can be arranged in such a way that, during screwing into the threaded bore, it displaces the cone element or the cone elements with respect to the receptacle and/or the anti-friction bearing sensor, the clamping screw having an opening, through which an electric line of the anti-friction bearing sensor is guided, characterized in that means are provided, by way of which the anti-friction bearing sensor can be secured against rotation during the fastening operation to the cone element or the cone elements, and in that the means can reach through the opening in the clamping screw from the outside.
Method for determining a reconstituted position signal for the rod of a linear actuator of a steering system for a motor vehicle, the system comprising a system for determining the position of said rod, which comprises a first sensor giving a first absolute position measurement for the rod, the first measurement not being linear outside a predefined linearity range, and a second sensor giving a second position measurement relative to the initial position of the rod at an instant of start-up of the determination system, characterized in that an initialization step is performed from the instant of start-up and the initialization step is maintained as long as the first measurement does not lie within the linearity range, and then switches to a normal phase after the initialization step, during which phase the reconstituted position signal for the rod is supplied which is equal to the second measurement reinitialized to the value of the first measurement at the end of the initialization step.
A unitary film structure of a polymeric resin comprising a base film layer having generally parallel upper and lower major surfaces (12, 13) and having projections being arranged in rows projecting from at least the upper major surface of said base film layer, wherein the projections are hook members which have base portions adjacent the base film layer and head portions that extend in a direction transverse to the direction of rows of the hook members characterized by having at least 50 spaced projections per centimeter in a row.
An Fc fusion protein, comprising an immunoglobulin Fc region linked to a biologically active polypeptide comprising one or more oligosaccharide, wherein: i. more than 10% of all oligosaccharides on the biologically active polypeptide terminate in sialic acid; and ii. at least one of the oligosaccharides linked to the biologically active polypeptide comprises a biantennary glycan structure terminating in at least 3 sialic acid molecules, or a triantennary glycan structure terminating in at least 4 sialic acid molecules, or a tetraantennary glycan structure terminating in at least 5 sialic molecules; and wherein the serum half-life of the Fc fusion protein is at least 30% longer relative to a corresponding Fc fusion protein in which none of the oligosaccharides comprise a biantennary glycan structure terminating in 3 or 4 sialic acid molecules. i. more than 10% of all oligosaccharides on the biologically active polypeptide terminate in sialic acid; and ii. at least one of the oligosaccharides linked to the biologically active polypeptide comprises a biantennary glycan structure terminating in at least 3 sialic acid molecules, or a triantennary glycan structure terminating in at least 4 sialic acid molecules, or a tetraantennary glycan structure terminating in at least 5 sialic molecules; and
An apparatus, comprising: a processor including a set of at least two micro-operations caches configured to store micro-operations decoded from instructions of a program to be executed by the processor, wherein the processor is configured to support selection of one of the micro-operations caches to be an active micro-operations cache based on a micro-operations cache switch instruction; and wherein the micro-operations cache switch instruction includes a micro-operations cache identifier indicative of one of the micro-operations caches to be made the active one of the micro-operations caches. a processor including a set of at least two micro-operations caches configured to store micro-operations decoded from instructions of a program to be executed by the processor, wherein the processor is configured to support selection of one of the micro-operations caches to be an active micro-operations cache based on a micro-operations cache switch instruction; and
A video display device, comprising: - an interface configured to receive video content; - an arrangement of light sources adapted to display the video content such that one or more of the light sources are used to show a corresponding pixel of the video content; and - a controller configured to control the light sources to display the video content and control the light sources according to a strobe control information to perform a strobe effect by periodic switching the light sources between a first state and a second state, wherein in the first state light emission by the light sources is controlled on the basis of the video content, and in the second state light emission by the light sources is controlled to a level which is defined independently of the video content, and wherein the strobe control information indicates a rate of said periodic switching, said rate being independent of a frame rate of the video content; characterized in that the interface is further configured to receive the strobe control information. - an interface configured to receive video content; - an arrangement of light sources adapted to display the video content such that one or more of the light sources are used to show a corresponding pixel of the video content; and - a controller configured to control the light sources to display the video content and control the light sources according to a strobe control information to perform a strobe effect by periodic switching the light sources between a first state and a second state,
A method for generating a control program for a laboratory automation device, the method comprising: receiving video data displaying a work area of a laboratory assistant, the work area containing a hand-held pipette and containers for receiving a liquid; detecting openings of the containers in the video data and determining positions of the openings; detecting a pipette tip of the hand-held pipette in the video data and determining a movement of the tip, wherein the movement of the pipette tip is tracked with an object tracking algorithm; generating the control program for the laboratory automation device from the movement of the pipette tip with respect to the positions of the openings, wherein the control program is adapted for moving a pipetting arm with a robot pipette of the laboratory automation device with respect to containers of the laboratory automation device accordingly to the movement of the hand-held pipette in the work area. receiving video data displaying a work area of a laboratory assistant, the work area containing a hand-held pipette and containers for receiving a liquid; detecting openings of the containers in the video data and determining positions of the openings; detecting a pipette tip of the hand-held pipette in the video data and determining a movement of the tip, wherein the movement of the pipette tip is tracked with an object tracking algorithm; generating the control program for the laboratory automation device from the movement of the pipette tip with respect to the positions of the openings, wherein the control program is adapted for moving a pipetting arm with a robot pipette of the laboratory automation device with respect to containers of the laboratory automation device accordingly to the movement of the hand-held pipette in the work area.