mhurhangee/ep-ind-claims huggingface dataset:
A method of generating regular expressions using a longest common subsequence, LCS, algorithm, the method comprising: receiving, by a regular expression generator comprising one or more processors, first input data comprising a first character sequence; converting, by the regular expression generator, the first character sequence into a first set of regular expression codes; receiving, by the regular expression generator, second input data comprising a second character sequence; converting, by the regular expression generator, the second character sequence into a second set of regular expression codes; executing, by the regular expression generator, a longest common subsequence, LCS, algorithm, wherein said executing comprises providing the first set of regular expression codes and the second set of regular expression codes as inputs to the execution of the LCS algorithm and capturing an output of the LCS algorithm in regular expression codes; generating, by the regular expression generator, a first regular expression based on the output of the LCS algorithm by converting the captured output of the LCS algorithm into the first regular expression; matching a pattern of the first regular expression against one or more data sets; and extracting, reformatting, or modifying data from the one or more data sets matching the regular expression. receiving, by a regular expression generator comprising one or more processors, first input data comprising a first character sequence; converting, by the regular expression generator, the first character sequence into a first set of regular expression codes; receiving, by the regular expression generator, second input data comprising a second character sequence; converting, by the regular expression generator, the second character sequence into a second set of regular expression codes; executing, by the regular expression generator, a longest common subsequence, LCS, algorithm, wherein said executing comprises providing the first set of regular expression codes and the second set of regular expression codes as inputs to the execution of the LCS algorithm and capturing an output of the LCS algorithm in regular expression codes; generating, by the regular expression generator, a first regular expression based on the output of the LCS algorithm by converting the captured output of the LCS algorithm into the first regular expression; matching a pattern of the first regular expression against one or more data sets; and extracting, reformatting, or modifying data from the one or more data sets matching the regular expression.
A hot dip galvanized steel sheet comprising a base steel sheet and a hot dip galvanized layer on at least one surface of the base steel sheet, wherein the base steel sheet has a chemical composition comprising, by mass%, C: 0.100% to 0.350%, Si: 0.50% to 2.50%, Mn: 1.00% to 3.50%, P: 0.050% or less, S: 0.0100% or less, Al: 0.001% to 1.500%, N: 0.0100% or less, O: 0.0100% or less, Ti: 0% to 0.200%, V: 0% to 1.00%, Nb: 0% to 0.100%, Cr: 0% to 2.00%, Ni: 0% to 1.00%, Cu: 0% to 1.00%, Co: 0% to 1.00%, Mo: 0% to 1.00%, W: 0% to 1.00%, B: 0% to 0.0100%, Sn: 0% to 1.00%, Sb: 0% to 1.00%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Ce: 0% to 0.0100%, Zr: 0% to 0.0100%, La: 0% to 0.0100%, Hf: 0% to 0.0100%, Bi: 0% to 0.0100%, REM other than Ce and La: 0% to 0.0100%, and a balance of Fe and impurities, a steel microstructure at a range of 1/8 thickness to 3/8 thickness centered about a position of 1/4 thickness from a surface of the base steel sheet contains, by volume fraction, ferrite: 0% to 50%, retained austenite: 6% to 30%, bainite: 5% or more, tempered martensite: 5% or more, fresh martensite: 0% to 10%, and pearlite and cementite in total: 0% to 5%, a number density of tempered martensite with a circle equivalent diameter of 5.0 μm or more is 20/1000 μm 2 or less, and an area ratio of fresh martensite with a circle equivalent diameter of 2.0 μm or more after imparting 5% plastic strain is 10% or less, wherein the steel microstructure, the number density of tempered martensite and the area ratio of fresh martensite are measured as defined in the description. C: 0.100% to 0.350%, Si: 0.50% to 2.50%, Mn: 1.00% to 3.50%, P: 0.050% or less, S: 0.0100% or less, Al: 0.001% to 1.500%, N: 0.0100% or less, O: 0.0100% or less, Ti: 0% to 0.200%, V: 0% to 1.00%, Nb: 0% to 0.100%, Cr: 0% to 2.00%, Ni: 0% to 1.00%, Cu: 0% to 1.00%, Co: 0% to 1.00%, Mo: 0% to 1.00%, W: 0% to 1.00%, B: 0% to 0.0100%, Sn: 0% to 1.00%, Sb: 0% to 1.00%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Ce: 0% to 0.0100%, Zr: 0% to 0.0100%, La: 0% to 0.0100%, Hf: 0% to 0.0100%, Bi: 0% to 0.0100%, REM other than Ce and La: 0% to 0.0100%, and a balance of Fe and impurities, a steel microstructure at a range of 1/8 thickness to 3/8 thickness centered about a position of 1/4 thickness from a surface of the base steel sheet contains, by volume fraction, ferrite: 0% to 50%, retained austenite: 6% to 30%, bainite: 5% or more, tempered martensite: 5% or more, fresh martensite: 0% to 10%, and pearlite and cementite in total: 0% to 5%, a number density of tempered martensite with a circle equivalent diameter of 5.0 μm or more is 20/1000 μm 2 or less, and an area ratio of fresh martensite with a circle equivalent diameter of 2.0 μm or more after imparting 5% plastic strain is 10% or less, wherein the steel microstructure, the number density of tempered martensite and the area ratio of fresh martensite are measured as defined in the description.
A radiation therapy system, comprising: a real-time 3D ultrasound imaging unit configured to generate a baseline and real-time 3D ultrasound images of at least a portion of a subject body region including a target region and one or more Organs At Risk (OARs); a registration unit configured to deformably register a planning image of the subject body region and the baseline image, and to map radiation absorptive properties of tissue based on the planning image to the baseline image; a real-time ultrasound motion unit configured to measure real time motion of the target region and OARs during radiation therapy treatment based on the real-time ultrasound images; and a real-time dose computation engine configured to compute a real-time radiation dose delivered to the target and OARs based on the tissue radiation absorptive properties mapped from the baseline image or planning image onto the real-time 3D ultrasound images. a real-time 3D ultrasound imaging unit configured to generate a baseline and real-time 3D ultrasound images of at least a portion of a subject body region including a target region and one or more Organs At Risk (OARs); a registration unit configured to deformably register a planning image of the subject body region and the baseline image, and to map radiation absorptive properties of tissue based on the planning image to the baseline image; a real-time ultrasound motion unit configured to measure real time motion of the target region and OARs during radiation therapy treatment based on the real-time ultrasound images; and a real-time dose computation engine configured to compute a real-time radiation dose delivered to the target and OARs based on the tissue radiation absorptive properties mapped from the baseline image or planning image onto the real-time 3D ultrasound images.
An apparatus for determining a desired charge density of a combustion mixture for a natural gas engine having an inlet air pathway, comprising: a first sensor coupled with the engine to determine a first characteristic indicative of an engine speed of the engine, and to transmit an engine speed signal as a function thereof; a second sensor coupled with the engine to determine a second characteristic indicative of a load on the engine, and to transmit an engine load signal as a function thereof; a charge density sensing device coupled with the inlet air pathway, the charge density sensing device determines an actual charge density of the combustion mixture and transmits at least one charge density signal as a function thereof; a processing device coupled with the first sensor to receive the engine speed signal and with the second sensor to receive the engine load signal, the processing device determines a desired charge density for the combustion mixture as a function of the engine speed signal and the engine load signal; and the processing device is coupled with the charge density sensing device to receive the at least one charge density signal, and determines a value indicative of a desired fuel flow for the engine as a function of the at least one charge density signal. a first sensor coupled with the engine to determine a first characteristic indicative of an engine speed of the engine, and to transmit an engine speed signal as a function thereof; a second sensor coupled with the engine to determine a second characteristic indicative of a load on the engine, and to transmit an engine load signal as a function thereof; a charge density sensing device coupled with the inlet air pathway, the charge density sensing device determines an actual charge density of the combustion mixture and transmits at least one charge density signal as a function thereof; a processing device coupled with the first sensor to receive the engine speed signal and with the second sensor to receive the engine load signal, the processing device determines a desired charge density for the combustion mixture as a function of the engine speed signal and the engine load signal; and the processing device is coupled with the charge density sensing device to receive the at least one charge density signal, and determines a value indicative of a desired fuel flow for the engine as a function of the at least one charge density signal.
Hand-held power tool comprising a motor, a tool holder and a striking mechanism incorporated into a drive train between the motor and the tool holder, the striking mechanism including: a first shaft, a second shaft, a ring gear connected to the first shaft and the inner wall of which is not rotationally symmetrical relative to an axis of the second shaft, an impeller connected to a second shaft and arranged to rotate within the ring gear, a magnet arranged coaxially with the second shaft and a fluid that fills a hollow space between the ring gear and the impeller, wherein the impeller is spaced from the ring gear by a first air gap in a first position and is spaced from the ring gear by a second air gap in a second position, the first air gap being smaller than the second air gap, and wherein the impeller and the ring gear are formed of a magnetically conductive material, characterised in that the fluid is magnetorheological. a first shaft, a second shaft, a ring gear connected to the first shaft and the inner wall of which is not rotationally symmetrical relative to an axis of the second shaft, an impeller connected to a second shaft and arranged to rotate within the ring gear, a magnet arranged coaxially with the second shaft and a fluid that fills a hollow space between the ring gear and the impeller, wherein the impeller is spaced from the ring gear by a first air gap in a first position and is spaced from the ring gear by a second air gap in a second position, the first air gap being smaller than the second air gap, and wherein the impeller and the ring gear are formed of a magnetically conductive material, characterised in that the fluid is magnetorheological.
A method comprising: - decoding pictures from a bitstream, the bitstream comprising at least two scalability layers and at least two pictures being associated with access units; - storing decoded pictures in a decoded picture buffer; - decoding from the bitstream that a first picture is a base-layer picture for which a variable indicating a start of a layer-wise start-up process is set, said layer-wise start-up process comprising decoding of the base-layer picture and then decoding other layers step-wise so that the number of decoded layers are progressively increased; - decoding from the bitstream a first syntax element of the first picture, the first syntax element controlling whether or not to output pictures preceding, in decoding order, the first picture; - decoding from the bitstream a first indication which indicates an output layer; - decoding from the bitstream a second indication, which indicates at least one alternative output layer; - outputting a first picture of the one alternative output layer when no picture of the output layer is in an access unit containing the first picture; - outputting a second picture of the output layer, wherein the second picture is associated with a second access unit; and - in response to the first syntax element controlling not to output, removing, from the decoded picture buffer, those pictures in all layers that precede the first picture in decoding order. - decoding pictures from a bitstream, the bitstream comprising at least two scalability layers and at least two pictures being associated with access units; - storing decoded pictures in a decoded picture buffer; - decoding from the bitstream that a first picture is a base-layer picture for which a variable indicating a start of a layer-wise start-up process is set, said layer-wise start-up process comprising decoding of the base-layer picture and then decoding other layers step-wise so that the number of decoded layers are progressively increased; - decoding from the bitstream a first syntax element of the first picture, the first syntax element controlling whether or not to output pictures preceding, in decoding order, the first picture; - decoding from the bitstream a first indication which indicates an output layer; - decoding from the bitstream a second indication, which indicates at least one alternative output layer; - outputting a first picture of the one alternative output layer when no picture of the output layer is in an access unit containing the first picture; - outputting a second picture of the output layer, wherein the second picture is associated with a second access unit; and - in response to the first syntax element controlling not to output, removing, from the decoded picture buffer, those pictures in all layers that precede the first picture in decoding order.
A process for treating wastewater, said process comprising: treating a mixture comprising said wastewater and an activated sludge, in a single reactor, with an electric current having a density of 15 to 20 A/m 2, by means of at least one anode and at least one cathode that define therebetween an electrical zone for treating said mixture; wherein said anode is an aluminum anode; exposing said mixture to an intermittent ON/OFF electrical exposure mode to said electric current in which an OFF period of time is 15 to 25 min and an ON period is 4 to 6 min; wherein each electrical cycle is divided into 50% of typical anoxic conditions followed by 50% of typical aerobic conditions, and maintaining an oxidation-reduction potential to fluctuate between -150 mV and +150 mV in the single reactor, at DO concentration of 0.3 to 2.5 mg/L; thereby allowing for substantial removal of carbon, nitrogen and phosphorus from said wastewater in said single reactor and for obtaining another mixture comprising a treated wastewater and solids. treating a mixture comprising said wastewater and an activated sludge, in a single reactor, with an electric current having a density of 15 to 20 A/m 2, by means of at least one anode and at least one cathode that define therebetween an electrical zone for treating said mixture; wherein said anode is an aluminum anode; exposing said mixture to an intermittent ON/OFF electrical exposure mode to said electric current in which an OFF period of time is 15 to 25 min and an ON period is 4 to 6 min; wherein each electrical cycle is divided into 50% of typical anoxic conditions followed by 50% of typical aerobic conditions, and maintaining an oxidation-reduction potential to fluctuate between -150 mV and +150 mV in the single reactor, at DO concentration of 0.3 to 2.5 mg/L; thereby allowing for substantial removal of carbon, nitrogen and phosphorus from said wastewater in said single reactor and for obtaining another mixture comprising a treated wastewater and solids.
Device for cutting and transferring a length of strip let off a continuous strip, comprising a first face (T 1) and a second face (T 2) and intended to be laid on a rotary receiving surface on which the various components that make up a tyre are assembled, and comprising - a cutting means able to separate the said length from the continuous strip along a cutting line, - a telescopic conveyor belt, arranged in a longitudinal direction (Y'Y) between the cutting means and the receiving surface, and intended to receive the length of strip via the first face (T 1) thereof, - a first half-anvil, arranged upstream of the cutting line, and comprising holding means able to grasp the strip via the first face (T 1) thereof, - a transporter, having holding means able to grasp the front edge (T f) or rear edge (T r) of the length of strip via the second face (T 2), the said transporter being translationally driven in the longitudinal direction (Y'Y), characterized in that it comprises a second half-anvil intended to collaborate with the first half-anvil during the cutting of the strip, and positioned downstream of the cutting line and upstream of the telescopic conveyor belt, comprising holding means able to grasp the rear edge (T r) of the length of strip via the said first face (T 1), and translationally driven in the longitudinal direction (Y'Y). - a cutting means able to separate the said length from the continuous strip along a cutting line, - a telescopic conveyor belt, arranged in a longitudinal direction (Y'Y) between the cutting means and the receiving surface, and intended to receive the length of strip via the first face (T 1) thereof, - a first half-anvil, arranged upstream of the cutting line, and comprising holding means able to grasp the strip via the first face (T 1) thereof, - a transporter, having holding means able to grasp the front edge (T f) or rear edge (T r) of the length of strip via the second face (T 2), the said transporter being translationally driven in the longitudinal direction (Y'Y),
An isolated polypeptide consisting of no more than 15 amino acid residues and comprising the amino acid sequence WEHVNAIQEARRLL (SEQ ID NO: 35), wherein said polypeptide has cellular protective activity, wherein the cellular protective activity is determined in vivo in an animal model of protection from injury to the sciatic nerve, or wherein the cellular protective activity comprises neuroprotection, which is determined in vitro by a method comprising the steps of: (a) contacting a test culture of primary hippocampal neurons with N-methyl-D-aspartate and said peptide; and (b) determining the cell viability at 48 hours post said contact, such that if the cell viability determined in step (b) is greater than that of a control culture in the absence of said peptide, the peptide possesses cellular protective activity. (a) contacting a test culture of primary hippocampal neurons with N-methyl-D-aspartate and said peptide; and (b) determining the cell viability at 48 hours post said contact, such that if the cell viability determined in step (b) is greater than that of a control culture in the absence of said peptide, the peptide possesses cellular protective activity.
An inner tub of a water-saving washing machine, comprising a balance ring, a tub body and a tub bottom, and the inner tub being a water containing tub during washing, wherein: an annular block groove which opens downward is arranged inside an upper end of the tub body, water circulates in the annular block groove in a circumferential direction, and the annular block groove is provided with a plurality of drain holes for draining water out of the inner tub, the balance ring is mounted on the upper end of the tub body and cooperates with the tub body to form the annular block groove, and the upper end of the tub body comprises a circle of connecting portion which is fixedly connected with the balance ring, and a circle of forming portion, characterized in that, the forming portion on the upper end of the tub body bends inwardly and extends upwardly to form the connecting portion, a radial distance is formed between the forming portion and an outer side wall of the balance ring, the forming portion and the balance ring cooperating with each other to form the annular block groove, the forming portion constitutes an outer side wall and a top wall of the annular block groove, and part of the outer side wall of the balance ring constitutes an inner side wall of the annular block groove, and the drain holes are distributed in the outer side wall and near the top wall of the annular block groove, and/or the drain holes are distributed in the top wall of the annular block groove. an annular block groove which opens downward is arranged inside an upper end of the tub body, water circulates in the annular block groove in a circumferential direction, and the annular block groove is provided with a plurality of drain holes for draining water out of the inner tub, the balance ring is mounted on the upper end of the tub body and cooperates with the tub body to form the annular block groove, and the upper end of the tub body comprises a circle of connecting portion which is fixedly connected with the balance ring, and a circle of forming portion, characterized in that, the forming portion on the upper end of the tub body bends inwardly and extends upwardly to form the connecting portion, a radial distance is formed between the forming portion and an outer side wall of the balance ring, the forming portion and the balance ring cooperating with each other to form the annular block groove, the forming portion constitutes an outer side wall and a top wall of the annular block groove, and part of the outer side wall of the balance ring constitutes an inner side wall of the annular block groove, and the drain holes are distributed in the outer side wall and near the top wall of the annular block groove, and/or the drain holes are distributed in the top wall of the annular block groove.
A method comprising: injecting, by a signal generator (205, 505) of a chamber signal manager, an alternating signal wave onto an output signal of a controller that controls a setting within a processing chamber, wherein the injecting generates a combined signal that is fed into an actuator that is to adjust the setting; measuring, by a sensor coupled to the processing chamber, a response value in response to the combined signal for the setting; calculating, by a comparator (217, 519) of the chamber signal manager, a difference between a setpoint input and the response value; adjusting, by the controller based on the difference, the setting via changes to the output signal; and sending, by the chamber signal manager, the combined signal and the changed output signal to a diagnostic server to generate a baseline bode fingerprint pertaining to a state associated with the processing chamber, the baseline bode fingerprint to be used in performing diagnostics of the processing chamber. injecting, by a signal generator (205, 505) of a chamber signal manager, an alternating signal wave onto an output signal of a controller that controls a setting within a processing chamber, wherein the injecting generates a combined signal that is fed into an actuator that is to adjust the setting; measuring, by a sensor coupled to the processing chamber, a response value in response to the combined signal for the setting; calculating, by a comparator (217, 519) of the chamber signal manager, a difference between a setpoint input and the response value; adjusting, by the controller based on the difference, the setting via changes to the output signal; and sending, by the chamber signal manager, the combined signal and the changed output signal to a diagnostic server to generate a baseline bode fingerprint pertaining to a state associated with the processing chamber, the baseline bode fingerprint to be used in performing diagnostics of the processing chamber.