mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: activating, by a computer system, a plurality of worker threads, receiving, by the computer system, a query; processing, by the computer system, the query in a first thread in the plurality of threads to generate a parsing task associated with the query; parsing, by the computer system, the query based on the parsing task to generate an execution plan comprising a plurality of ordered operations for answering the query; generating, by the computer system, a task graph comprising a plurality of task nodes (307, 309) corresponding to the plurality of ordered operations, based on the execution plan; identifying, by the computer system, a first task node in the plurality of task nodes (307, 309) corresponding to a first ordered operation in the plurality of ordered operations determined be partitionable into sub operations that can be executed in parallel; generating, by the computer system, a concurrency level value that corresponds to an availability of worker threads in the plurality of worker threads, wherein generating the concurrency level value comprises calculating an average number of available worker threads in the plurality of worker threads over a period of time and the concurrency level value is further based on a state of the query; and generating, by the computer system, a plurality of partitioned tasks that can be executed in parallel based on the first task node and the concurrency level value, wherein the concurrency level value is the upper limit for the number of partitioned tasks. activating, by a computer system, a plurality of worker threads, receiving, by the computer system, a query; processing, by the computer system, the query in a first thread in the plurality of threads to generate a parsing task associated with the query; parsing, by the computer system, the query based on the parsing task to generate an execution plan comprising a plurality of ordered operations for answering the query; generating, by the computer system, a task graph comprising a plurality of task nodes (307, 309) corresponding to the plurality of ordered operations, based on the execution plan; identifying, by the computer system, a first task node in the plurality of task nodes (307, 309) corresponding to a first ordered operation in the plurality of ordered operations determined be partitionable into sub operations that can be executed in parallel; generating, by the computer system, a concurrency level value that corresponds to an availability of worker threads in the plurality of worker threads, wherein generating the concurrency level value comprises calculating an average number of available worker threads in the plurality of worker threads over a period of time and the concurrency level value is further based on a state of the query; and generating, by the computer system, a plurality of partitioned tasks that can be executed in parallel based on the first task node and the concurrency level value, wherein the concurrency level value is the upper limit for the number of partitioned tasks.
A method for making a composite polyamide membrane comprising a porous support and a thin film polyamide layer, wherein the method comprises the step of applying a polyfunctional amine monomer and polyfunctional acid halide monomer to a surface of the porous support and interfacially polymerizing the monomers to form a thin film polyamide layer, wherein the method is characterized by including at least one of the following steps: i) conducting the interfacial polymerization in the presence of an additional monomer dissimilar from the aforementioned polyfunctional amine and acid halide monomers and comprising an aromatic moiety substituted with at least one carboxylic acid functional group thereof and a single amine-reactive functional group, and wherein the additional monomer and the polyfunctional acid halide monomer are applied from a common non-polar solution in a molar ratio of from 0.0001:1 to 1:1; and ii) applying an additional monomer dissimilar from the aforementioned polyfunctional amine and acid halide monomers and comprising an aromatic moiety substituted with at least one carboxylic acid functional group or salt thereof and a single amine-reactive functional group to the thin film polyamide layer and wherein the additional monomer is applied from a non-polar solution at a concentration from 0.5 to 5% weight/volume; wherein the amine-reactive functional group is selected from: anhydride, isocyanate and epoxy. i) conducting the interfacial polymerization in the presence of an additional monomer dissimilar from the aforementioned polyfunctional amine and acid halide monomers and comprising an aromatic moiety substituted with at least one carboxylic acid functional group thereof and a single amine-reactive functional group, and wherein the additional monomer and the polyfunctional acid halide monomer are applied from a common non-polar solution in a molar ratio of from 0.0001:1 to 1:1; and ii) applying an additional monomer dissimilar from the aforementioned polyfunctional amine and acid halide monomers and comprising an aromatic moiety substituted with at least one carboxylic acid functional group or salt thereof and a single amine-reactive functional group to the thin film polyamide layer and wherein the additional monomer is applied from a non-polar solution at a concentration from 0.5 to 5% weight/volume;
An OD-doped synthetic silica glass material capable of being used in the light path of the lithographic irradiation of a lithographic device operating at a wavelength below about 300 nm comprising OD and optionally OH, wherein the ratio of n /(n +n) is higher than 0.5, more advantageously higher than 0.90, more advantageously higher than 0.95.
A user terminal, UE, in a wireless communication system, the user terminal (4a, 4b) comprising a receiver unit (5a, 5b), a transmitter unit (6a, 6b) configured to transmit data in transmit sub-frames occurring at defined sub-frame intervals, and a control unit (7a, 7b) configured to control the receiver circuit (5a, 5b) and the transmitter circuit (6a, 6b), where the control unit (7a, 7b) also is configured to create a PRACH, Physical Random-Access Channel, preamble as an uplink transmission to a node that is arranged to receive communication from the user terminal in said sub-frames, said communication comprising OFDM, Orthogonal Frequency-Division Multiplexing, based symbols (20; 20a, 20b, 20c), characterized in that the control unit (7a, 7b) further is configured to create each PRACH preamble such that it comprises a sequence of a plurality of identical random access sequences (s(n)), where each random access sequence (s(n)) has the same length in time as each one of the OFDM based symbols (20a, 20b, 20c).
An in vitro method for enriching for one of more specific target DNA molecules from a sample of mixed DNA molecules comprising the steps of: a) providing a liquid sample of mixed DNA molecules comprising one or more specific target DNA molecules and reagents for specific detection of at least one of said specific target DNA molecules, b) formation of an emulsion of a multiple of liquid droplets from said liquid sample, c) specific detection of droplets containing at least one of said specific target DNA molecules, wherein each droplet contains less than 0.5, preferably less than 0.25 or even more preferably less than 0.1 of said one of more specific target DNA molecules on average, and d) physically selecting droplets containing at least one of said specific target DNA molecules, e) general amplification of detected DNA molecules containing at least one of said specific target DNA molecules in the coalesced selected droplets from step d), where the detected DNA molecules containing at least one of said specific target DNA molecules are in a total amount of less than 300fg, wherein general amplification reagents are added to the coalesced selected droplets to form a general amplification reaction mixture, and wherein an emulsion of droplets are formed from the reaction mixture. a) providing a liquid sample of mixed DNA molecules comprising one or more specific target DNA molecules and reagents for specific detection of at least one of said specific target DNA molecules, b) formation of an emulsion of a multiple of liquid droplets from said liquid sample, c) specific detection of droplets containing at least one of said specific target DNA molecules, wherein each droplet contains less than 0.5, preferably less than 0.25 or even more preferably less than 0.1 of said one of more specific target DNA molecules on average, and d) physically selecting droplets containing at least one of said specific target DNA molecules, e) general amplification of detected DNA molecules containing at least one of said specific target DNA molecules in the coalesced selected droplets from step d), where the detected DNA molecules containing at least one of said specific target DNA molecules are in a total amount of less than 300fg, wherein general amplification reagents are added to the coalesced selected droplets to form a general amplification reaction mixture, and wherein an emulsion of droplets are formed from the reaction mixture.
A drive unit for a looped cord system comprising: a housing a sprocket attached to the housing; a beaded cord loop comprised of beads connected in series to form a loop with a space between each pair of adjacent beads, the beaded cord loop hung on the sprocket such that there will be two portions of the beaded cord loop adjacent to and not engaging the sprocket which two portions will be parallel to one another when no force acts on those portions of the beaded cord loop; a stop attached to the housing; a resilient finger opposite the stop, the resilient finger pushing one of the two portions of the beaded cord loop adjacent to and not engaging the sprocket against the stop, thereby preventing movement of the beaded cord loop, and the two portions of the beaded cord loop are not parallel to one another; - wherein applying tension to the beaded cord loop will overcome the pushing of the resilient finger and move the beaded cord loop away from the stop enabling movement of the beaded cord loop; said drive unit being characterized by further comprising a tensioner on the beaded cord loop; and a shroud which surrounds at least a portion of the beaded cord loop. a housing a sprocket attached to the housing; a beaded cord loop comprised of beads connected in series to form a loop with a space between each pair of adjacent beads, the beaded cord loop hung on the sprocket such that there will be two portions of the beaded cord loop adjacent to and not engaging the sprocket which two portions will be parallel to one another when no force acts on those portions of the beaded cord loop; a stop attached to the housing; a resilient finger opposite the stop, the resilient finger pushing one of the two portions of the beaded cord loop adjacent to and not engaging the sprocket against the stop, thereby preventing movement of the beaded cord loop, and the two portions of the beaded cord loop are not parallel to one another; - wherein applying tension to the beaded cord loop will overcome the pushing of the resilient finger and move the beaded cord loop away from the stop enabling movement of the beaded cord loop; said drive unit being characterized by further comprising a tensioner on the beaded cord loop; and a shroud which surrounds at least a portion of the beaded cord loop.
A method by a first base station associated with master cell group, MCG, for a wireless communication system, comprising: transmitting, to a second base station, a first message for requesting to add at least one secondary cell involved in secondary cell group, SCG, of the second base station to a terminal; receiving, from the second base station, a second message in response to the first message, the second message including information associated with a preamble, information associated with a physical random access channel, PRACH, resource, and a cell radio network temporary identifier, C-RNTI, of the terminal for the SCG; and transmitting, to the terminal, a third message for adding the at least one secondary cell involved in the SCG to the terminal, the third message including the information associated with the preamble, the information associated with the PRACH resource, and the C-RNTI of the terminal for the SCG, wherein the C-RNTI of the terminal for the SCG is different from a C-RNTI of the terminal for the MCG. transmitting, to a second base station, a first message for requesting to add at least one secondary cell involved in secondary cell group, SCG, of the second base station to a terminal; receiving, from the second base station, a second message in response to the first message, the second message including information associated with a preamble, information associated with a physical random access channel, PRACH, resource, and a cell radio network temporary identifier, C-RNTI, of the terminal for the SCG; and transmitting, to the terminal, a third message for adding the at least one secondary cell involved in the SCG to the terminal, the third message including the information associated with the preamble, the information associated with the PRACH resource, and the C-RNTI of the terminal for the SCG, wherein the C-RNTI of the terminal for the SCG is different from a C-RNTI of the terminal for the MCG.
A method comprising (a) providing a cured or curable polymeric composite article; (b) providing a curable composition comprising at least one thermosetting resin, and at least one preformed, substantially non-functional, particulate modifier comprising at least one elastomer, wherein the modifier is a core-shell polymer modifier having a polyacrylate or polymethacrylate shell and a synthetic rubber core; and (c) applying said composition to at least a portion of at least one surface of said article, wherein "substantially non-functional" in reference to the particulate modifier means bearing essentially no functional groups that are capable of both contact and chemical reaction with the thermosetting resin. (a) providing a cured or curable polymeric composite article; (b) providing a curable composition comprising at least one thermosetting resin, and at least one preformed, substantially non-functional, particulate modifier comprising at least one elastomer, wherein the modifier is a core-shell polymer modifier having a polyacrylate or polymethacrylate shell and a synthetic rubber core; and at least one thermosetting resin, and at least one preformed, substantially non-functional, particulate modifier comprising at least one elastomer, wherein the modifier is a core-shell polymer modifier having a polyacrylate or polymethacrylate shell and a synthetic rubber core; and (c) applying said composition to at least a portion of at least one surface of said article,
An integrated circuit comprising a substrate with an electrically insulating surface, on which surface are present: - an insulating layer; - a semiconducting layer which is at least substantially unpatterned; - a first patterned layer comprising a pattern of electrical conductors; and - a second patterned layer which comprises a pattern of electrical conductors and which is separated from the first patterned layer and from the semiconducting layer by the insulating layer, wherein the first patterned layer is in contact with the semiconducting layer and comprises first and second electrodes of a first and a second transistor, said first and second transistors (10, 20) each having said first (14, 24) and said second electrode (15, 25), of which electrodes (14, 24; 15, 25) at least the first electrodes (14, 24) comprise a number of electrically conducting tracks (61, 62; 63, 64) which are at least substantially parallel, wherein - the first electrode of the first transistor and the first electrode of the second transistor both perform the same function of source or drain electrode; characterised in that - the circuit comprises an electrical conductor which interconnects the first electrode of the first transistor and the first electrode of the second transistor in the first patterned layer such that said first electrodes (14, 24) have the same potential in operational condition; and - the first patterned layer between the first and the second transistor is free from any electrical conductor which has a potential other than that of the first electrode of the first transistor in the operational condition. - an insulating layer; - a semiconducting layer which is at least substantially unpatterned; - a first patterned layer comprising a pattern of electrical conductors; and - a second patterned layer which comprises a pattern of electrical conductors and which is separated from the first patterned layer and from the semiconducting layer by the insulating layer, wherein the first patterned layer is in contact with the semiconducting layer and comprises first and second electrodes of a first and a second transistor, said first and second transistors (10, 20) each having said first (14, 24) and said second electrode (15, 25), of which electrodes (14, 24; 15, 25) at least the first electrodes (14, 24) comprise a number of electrically conducting tracks (61, 62; 63, 64) which are at least substantially parallel, wherein - the first electrode of the first transistor and the first electrode of the second transistor both perform the same function of source or drain electrode; characterised in that - the circuit comprises an electrical conductor which interconnects the first electrode of the first transistor and the first electrode of the second transistor in the first patterned layer such that said first electrodes (14, 24) have the same potential in operational condition; and - the first patterned layer between the first and the second transistor is free from any electrical conductor which has a potential other than that of the first electrode of the first transistor in the operational condition.
Gun comprising: - a gun frame; - a barrel, supported by the gun frame, which proximally delimits a firing chamber extending along a longitudinal axis; - a slide, translatable longitudinally in relation to the gun frame between a forward configuration in which it closes the firing chamber, and a rearward configuration in which it is distanced from the barrel to open said chamber, the orientation of the firing chamber in the forward configuration and in the rearward configuration being substantially parallel to said axis; and - a locking device, which in the forward configuration acts so as to join the barrel and the slide and in the rearward configuration releases the slide to enable its backward movement; said gun being characterized in that the locking device comprises at least one locking projection (12, 14) which, in the forward configuration, engages a locking seat (16, 18) of the slide, and which in the rearward configuration slides along a longitudinal rifling (20, 22) of the slide, the locking seat (16, 18) and the longitudinal rifling (20, 22) being communicating. - a gun frame; - a barrel, supported by the gun frame, which proximally delimits a firing chamber extending along a longitudinal axis; - a slide, translatable longitudinally in relation to the gun frame between a forward configuration in which it closes the firing chamber, and a rearward configuration in which it is distanced from the barrel to open said chamber, the orientation of the firing chamber in the forward configuration and in the rearward configuration being substantially parallel to said axis; and - a locking device, which in the forward configuration acts so as to join the barrel and the slide and in the rearward configuration releases the slide to enable its backward movement;
An organic polymer that is a reaction product of Reaction product of Urethane prepolymer having an isocyanate group and Compound denoted by Formula and Polyamine compound, wherein Urethane prepolymer is a reaction product of Polyol and Polyisocyanate, and Polyol contains High-molecular-weight polyol (a1-1) and Low-molecular-weight polyol (a1-2), wherein in Formula, each R 1 represents a single bond or a hydrocarbon group having a carbon atom number of 1 to 10, R 2 represents a hydrocarbon group having a carbon atom number of 1 to 50 where -CH 2 - contained in the hydrocarbon group is replaced or not replaced by -O-, and L 1 represents -O-CO-O-, characterized in that the molecular weight of the High-molecular-weight polyol is 500 or more, and the molecular weight of the Low-molecular-weight polyol is 300 or less, the molecular weight being determined according to the method identified in the specification, and in that the content of alkylenediol in the Low-molecular-weight polyol (a1-2) is 60% by mass or more and 100% by mass or less. wherein Urethane prepolymer is a reaction product of Polyol and Polyisocyanate, and Polyol contains High-molecular-weight polyol (a1-1) and Low-molecular-weight polyol (a1-2), wherein in Formula, each R 1 represents a single bond or a hydrocarbon group having a carbon atom number of 1 to 10, R 2 represents a hydrocarbon group having a carbon atom number of 1 to 50 where -CH 2 - contained in the hydrocarbon group is replaced or not replaced by -O-, and L 1 represents -O-CO-O-, characterized in that the molecular weight of the High-molecular-weight polyol is 500 or more, and the molecular weight of the Low-molecular-weight polyol is 300 or less, the molecular weight being determined according to the method identified in the specification, and in that the content of alkylenediol in the Low-molecular-weight polyol (a1-2) is 60% by mass or more and 100% by mass or less. each R 1 represents a single bond or a hydrocarbon group having a carbon atom number of 1 to 10, R 2 represents a hydrocarbon group having a carbon atom number of 1 to 50 where -CH 2 - contained in the hydrocarbon group is replaced or not replaced by -O-, and L 1 represents -O-CO-O-, characterized in that the molecular weight of the High-molecular-weight polyol is 500 or more, and the molecular weight of the Low-molecular-weight polyol is 300 or less, the molecular weight being determined according to the method identified in the specification, and in that the content of alkylenediol in the Low-molecular-weight polyol (a1-2) is 60% by mass or more and 100% by mass or less.
A method for manufacturing a photomask blank having at least a silicon-containing inorganic film over a transparent substrate and a resist film on the silicon-containing inorganic film, comprising: forming the silicon-containing inorganic film such that when the surface that will contact the resist film is subjected to X-ray photoelectron spectroscopy, a detected intensity with respect to an Si-O bond energy is larger than a detected intensity with respect to an Si-Si bond energy; performing a silylation process after forming the silicon-containing inorganic film; and then forming the resist film by application. forming the silicon-containing inorganic film such that when the surface that will contact the resist film is subjected to X-ray photoelectron spectroscopy, a detected intensity with respect to an Si-O bond energy is larger than a detected intensity with respect to an Si-Si bond energy; performing a silylation process after forming the silicon-containing inorganic film; and then forming the resist film by application.