mhurhangee/ep-ind-claims huggingface dataset:
A DNA composition comprising a DNA minigene construct that encodes for a polypeptide comprising a plurality of legumain fragments, said plurality consisting of three immunogenic fragments of legumain, each of which is preceded by the three amino acids AAY, the immunogenic fragments being joined together serially by said three amino acids AAY between each successive fragment in the polypeptide, wherein the polypeptide is capable of eliciting an immune response against tumor-associated cells, and is expressible in immune cells, and wherein the DNA minigene construct is incorporated in a pharmaceutically acceptable carrier, wherein said immunogenic fragments have an amino acid sequence according to SEQ ID NOs: 16, 17 and 18.
An electronic reproduction device comprising electronic circuitry, the electronic circuitry being operative to: - select a content item which provides a human perceptual signal, the selection being in dependency of a pace of a person; - determine a target heart rate of said person and a current heart rate of said person; - adapt the human perceptual signal if said current heart rate of said person does not match said target heart rate of said person, the adaptation being limited to a certain maximum; - reproduce the human perceptual signal; characterized in that the electronic circuitry is further operative to: - select a new content item to be reproduced based on a predicted heart rate of the person in a next plurality of seconds, wherein said heart rate of the person is predicted based on a history of heart rate measurements of said person. - select a content item which provides a human perceptual signal, the selection being in dependency of a pace of a person; - determine a target heart rate of said person and a current heart rate of said person; - adapt the human perceptual signal if said current heart rate of said person does not match said target heart rate of said person, the adaptation being limited to a certain maximum; - reproduce the human perceptual signal; - select a new content item to be reproduced based on a predicted heart rate of the person in a next plurality of seconds, wherein said heart rate of the person is predicted based on a history of heart rate measurements of said person.
A method for decomposing a phenolic by-product generated in a bisphenol A preparation process, the method comprising: a step of feeding the phenolic by-product to a multistage reactive distillation column; a step of separating the phenolic by-product into an upper discharge stream containing an active component, a side discharge stream containing acetophenone, and a bottom discharge stream containing tar by the multistage reactive distillation column; and a step of mixing the side discharge stream discharged from the multistage reactive distillation column and the bottom discharge stream discharged from the multistage reactive distillation column to form a mixed discharge stream, wherein an operation pressure of the multistage reactive distillation column is 0.1 bar to 3.0 bar and an operation temperature of the multistage reactive distillation column is 260°C to 370°C. a step of feeding the phenolic by-product to a multistage reactive distillation column; a step of separating the phenolic by-product into an upper discharge stream containing an active component, a side discharge stream containing acetophenone, and a bottom discharge stream containing tar by the multistage reactive distillation column; and a step of mixing the side discharge stream discharged from the multistage reactive distillation column and the bottom discharge stream discharged from the multistage reactive distillation column to form a mixed discharge stream, wherein an operation pressure of the multistage reactive distillation column is 0.1 bar to 3.0 bar and an operation temperature of the multistage reactive distillation column is 260°C to 370°C.
Dual-mass flywheel composed of a primary mass, which is connectable to the drive output shaft of an engine, and a secondary mass, which is connectable to the input shaft of a transmission, which primary mass and secondary mass are positioned concentrically and axially relative to one another by means of at least one bearing arrangement and are rotatable relative to one another at least to a limited extent counter to the action of a damping device with energy stores, wherein the energy stores are accommodated in a ring-shaped, annular chamber ' which is formed by the components (6, 14) of the primary mass and which contains a viscous medium, wherein the components (6, 14) which form the chamber and the secondary mass bear load exertion regions (29, 34, 35) for the energy stores, wherein the annular chamber is delimited at least by two components (6, 14) which, radially outside the energy stores, have mutually opposite areal, ring-shaped regions (18, 19) between which an areal, ring-shaped seal is clamped, wherein one of the components has a material thickness which is 20 to 50% of the material thickness of the other component, which is connectable to the drive output shaft of an engine, and wherein the component with the smaller material thickness forms a potshaped region which merges into the ring-shaped region of said component.
A base station comprising: a generation section that is configured to generate a master information block, MIB, including a parameter selected based on an operation mode during narrow band communication, wherein the operation mode is one of an in-band operation mode, a guard-band operation mode and a stand-alone operation mode; and a transmission section that is configured to transmit the MIB, wherein, only when the operation mode is the in-band operation mode and Z only when a physical cell indicator of an NB-IoT system is different from a physical cell indicator of LTE, the MIB includes a cell-specific reference signal, CRS, port parameter indicating the number of antenna ports of the CRS. a generation section that is configured to generate a master information block, MIB, including a parameter selected based on an operation mode during narrow band communication, wherein the operation mode is one of an in-band operation mode, a guard-band operation mode and a stand-alone operation mode; and a transmission section that is configured to transmit the MIB, wherein, only when the operation mode is the in-band operation mode and Z only when a physical cell indicator of an NB-IoT system is different from a physical cell indicator of LTE, the MIB includes a cell-specific reference signal, CRS, port parameter indicating the number of antenna ports of the CRS.
A method for testing the integrity of a chromatography membrane sealed in a housing comprising: obtaining a chromatography device comprising a housing and having one or more chromatography membranes to be tested sealed in the housing, the membrane(s) having a binding capacity for an analyte; selecting an analyte that will bind to the membrane(s) under predetermined test conditions; contacting the membrane(s) with a pulse amount of the analyte under the predetermined test conditions, the pulse amount of the analyte being less than the binding capacity of the membrane(s); eluting the analyte from the membrane(s) with an elution fluid to form an eluate containing the eluted analyte, the eluted analyte having a measurable concentration in the eluate; measuring a change in the concentration of the eluted analyte in the eluate over a period of time to provide an elution pattern for the tested membrane(s); comparing the elution pattern for the tested membrane(s) to a reference elution pattern for a membrane of known integrity, wherein a difference in the elution patterns of the tested membrane(s) and the reference elution pattern indicates a breach in the integrity of the membrane(s); and determining the integrity of the tested membrane(s). obtaining a chromatography device comprising a housing and having one or more chromatography membranes to be tested sealed in the housing, the membrane(s) having a binding capacity for an analyte; selecting an analyte that will bind to the membrane(s) under predetermined test conditions; contacting the membrane(s) with a pulse amount of the analyte under the predetermined test conditions, the pulse amount of the analyte being less than the binding capacity of the membrane(s); eluting the analyte from the membrane(s) with an elution fluid to form an eluate containing the eluted analyte, the eluted analyte having a measurable concentration in the eluate; measuring a change in the concentration of the eluted analyte in the eluate over a period of time to provide an elution pattern for the tested membrane(s); comparing the elution pattern for the tested membrane(s) to a reference elution pattern for a membrane of known integrity, wherein a difference in the elution patterns of the tested membrane(s) and the reference elution pattern indicates a breach in the integrity of the membrane(s); and determining the integrity of the tested membrane(s).
A process to prepare a detergent comprising: (a) reacting in the presence of a solvent, a mixture of (i) an acidic detergent substrate which is a hydrocarbyl-substituted sulphonic acid, and (iii) a basic metal compound, and optionally further in the presence of an alcohol; (b) reacting the product of (a) with a hydroxy-carboxylic acid, or reactive equivalent thereof, wherein the reactive equivalent is an acid or an anhydride, and carbon dioxide to form an overbased detergent; and (c) optionally, removing volatiles from the product of (a) or (b); wherein the detergent has a TBN of 200 to 600, or 300 to 550, or 350 to 500 mg KOH/g; and wherein the hydroxy-carboxylic acid is tartaric acid, citric acid, - lactic acid, malic acid, or mixtures thereof. (a) reacting in the presence of a solvent, a mixture of (i) an acidic detergent substrate which is a hydrocarbyl-substituted sulphonic acid, and (iii) a basic metal compound, and optionally further in the presence of an alcohol; (i) an acidic detergent substrate which is a hydrocarbyl-substituted sulphonic acid, and (iii) a basic metal compound, and optionally further in the presence of an alcohol; (b) reacting the product of (a) with a hydroxy-carboxylic acid, or reactive equivalent thereof, wherein the reactive equivalent is an acid or an anhydride, and carbon dioxide to form an overbased detergent; and (c) optionally, removing volatiles from the product of (a) or (b);
A method of operation of a network node in a cellular communications network, comprising: obtaining a reference measurement performed by a measuring node, wherein the measuring node is a wireless device equipped with an enhanced receiver capable of mitigating interference at the wireless device, the reference measurement containing one or more interference components that were not removed or were only partially removed by the enhanced receiver; obtaining a compensation value for mitigating at least one interference component of the one or more interference components contained in the reference measurement, wherein the compensation value is indicative of an amount of interference that can be mitigated by the enhanced receiver of the wireless device; and applying the compensation value to the reference measurement to thereby mitigate the at least one interference component of the one or more interference components contained in the reference measurement and provide an effective measurement for the measuring node. obtaining a reference measurement performed by a measuring node, wherein the measuring node is a wireless device equipped with an enhanced receiver capable of mitigating interference at the wireless device, the reference measurement containing one or more interference components that were not removed or were only partially removed by the enhanced receiver; obtaining a compensation value for mitigating at least one interference component of the one or more interference components contained in the reference measurement, wherein the compensation value is indicative of an amount of interference that can be mitigated by the enhanced receiver of the wireless device; and applying the compensation value to the reference measurement to thereby mitigate the at least one interference component of the one or more interference components contained in the reference measurement and provide an effective measurement for the measuring node.
Method for energy management in a hybrid motor vehicle comprising a power plant that includes a heat engine and an electric motor suitable for being coupled with wheels of the vehicle via a transmission device according to at least two transmission modes (Hyb1, ZEV1), one of which is currently in use, wherein a) a quantity of energy is determined which represents the energy consumption of the power plant, and b) one of said transmission modes (Hyb1, ZEV1) is selected according to this quantity of energy by executing the following steps: b1) a parameter is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor of said quantity of energy is determined according to said parameter which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy plus said correction factor, b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR), characterized in that, in the course of step b2), said correction factor is likewise determined according to the transmission mode currently in use. a) a quantity of energy is determined which represents the energy consumption of the power plant, and b) one of said transmission modes (Hyb1, ZEV1) is selected according to this quantity of energy by executing the following steps: b1) a parameter is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor of said quantity of energy is determined according to said parameter which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy plus said correction factor, b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR), characterized in that, in the course of step b2), said correction factor is likewise determined according to the transmission mode currently in use. b1) a parameter is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor of said quantity of energy is determined according to said parameter which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy plus said correction factor, b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR),
An apparatus for embedding a continuous elastic cord along an edge of a continuous plastic sheet, comprising an adhesive applicator device operable to apply an adhesive along the edge of the plastic sheet, a folder device (18, 20, 24) operable to provide a folded edge of the plastic sheet so that the adhesive is within the folded edge, and a feed device having a tension device operable to feed the elastic cord in tension into the folded edge so that the elastic cord is in contact with the adhesive of the edge, a bonding device that is operable to activate the adhesive of the folded edge to bond the elastic cord in tension to the adhesive within the folded edge and to bond the folded edge to the plastic sheet, characterised by: the adhesive applicator device being arranged to apply the adhesive prior to the folder device being arranged to fold the edge of the plastic sheet.
An arrangement for providing a driving voltage from a primary power source to a plurality of SPD loads (SPD1, SPD2, SPD3, SPD4, SPD5), comprising in combination: backbone wiring which carries a low voltage derived from said primary power source, wherein said primary power source supplies AC, said low voltage on said backbone wiring is AC, characterized by a conversion stage which converts said low voltage to a higher voltage AC driving voltage and supplies said AC driving voltage to said plurality of SPD loads (SPD1, SPD2, SPD3, SPD4, SPD5). said conversion stage comprises a plurality of step-up transformes (21, 22, 23, 24, 25) which receive said low AC voltage and supply said higher AC driving voltage to a corresponding plurality of said SPD loads, and further comprising a step-down transformer which steps down said supplied AC to said low AC voltage on said backbone wiring. backbone wiring which carries a low voltage derived from said primary power source, wherein said primary power source supplies AC, said low voltage on said backbone wiring is AC, characterized by a conversion stage which converts said low voltage to a higher voltage AC driving voltage and supplies said AC driving voltage to said plurality of SPD loads (SPD1, SPD2, SPD3, SPD4, SPD5). said conversion stage comprises a plurality of step-up transformes (21, 22, 23, 24, 25) which receive said low AC voltage and supply said higher AC driving voltage to a corresponding plurality of said SPD loads, and further comprising a step-down transformer which steps down said supplied AC to said low AC voltage on said backbone wiring.
An oral gastric resistant soft capsule shell comprising pectin, gelatin, glycerol, a divalent cationic gelling agent and water, wherein the oral gastric resistant soft capsule shell is obtainable by a method comprising a. preparing a gel mass by mixing a solution comprising: i. pectin in an amount of less than 5% by weight, ii. gelatin in an amount from 20% to 40% by weight, iii. glycerol in an amount from 8% to 30% by weight, iv. a divalent cationic gelling agent in an amount of less than 2% by weight, and v. water b. casting the gel mass into films or ribbons; and c. forming the capsule shell. a. preparing a gel mass by mixing a solution comprising: i. pectin in an amount of less than 5% by weight, ii. gelatin in an amount from 20% to 40% by weight, iii. glycerol in an amount from 8% to 30% by weight, iv. a divalent cationic gelling agent in an amount of less than 2% by weight, and v. water i. pectin in an amount of less than 5% by weight, ii. gelatin in an amount from 20% to 40% by weight, iii. glycerol in an amount from 8% to 30% by weight, iv. a divalent cationic gelling agent in an amount of less than 2% by weight, and v. water b. casting the gel mass into films or ribbons; and c. forming the capsule shell.
An LED module, comprising: a blue LED that emits blue light; a green phosphor that absorbs a portion of the blue light emitted by the blue LED and emits green light; and a red phosphor that absorbs at least one of a portion of the blue light emitted by the blue LED and a portion of the green light emitted by the green phosphor, and emits red light, wherein a light-emission spectrum of the blue LED has a peak wavelength of no less than 420 nm and no greater than 470 nm, and a Full Width at Half Maximum (FWHM) of greater than 0 nm and no greater than 50 nm, a light-emission spectrum of the green phosphor has a peak wavelength of no less than 500 nm and no greater than 535 nm, and an FWHM of no less than 100 nm and no greater than 110 nm, characterized in that a light-emission spectrum of the red phosphor has a peak wavelength of no less than 610 nm and no greater than 670 nm, and an FWHM of no less than 85 nm and no greater than 95 nm, mixed-color light of the blue light, the green light and the red light has a correlated color temperature Tc of no less than 4600 K and no greater than 7200 K, and the mixed-color light has a Distance from perfect radiator locus on uv coordinates (Duv) of no less than -12 and no greater than -6. a blue LED that emits blue light; a green phosphor that absorbs a portion of the blue light emitted by the blue LED and emits green light; and a red phosphor that absorbs at least one of a portion of the blue light emitted by the blue LED and a portion of the green light emitted by the green phosphor, and emits red light, wherein a light-emission spectrum of the blue LED has a peak wavelength of no less than 420 nm and no greater than 470 nm, and a Full Width at Half Maximum (FWHM) of greater than 0 nm and no greater than 50 nm, a light-emission spectrum of the green phosphor has a peak wavelength of no less than 500 nm and no greater than 535 nm, and an FWHM of no less than 100 nm and no greater than 110 nm, characterized in that a light-emission spectrum of the red phosphor has a peak wavelength of no less than 610 nm and no greater than 670 nm, and an FWHM of no less than 85 nm and no greater than 95 nm, mixed-color light of the blue light, the green light and the red light has a correlated color temperature Tc of no less than 4600 K and no greater than 7200 K, and the mixed-color light has a Distance from perfect radiator locus on uv coordinates (Duv) of no less than -12 and no greater than -6.
A compound having the formula: or a tautomer, enantiomer, diastereomer, mixture or salt thereof; for use in the prevention or treatment of disorders or conditions which are connected with an increased DPP-IV activity or which can be prevented or alleviated by reducing the DPP-IV activity, namely type I or type II diabetes mellitus.
An apparatus for producing a solid electrolyte, comprising a grinder for reacting raw materials comprising at least lithium sulfide and other sulfides in a hydrocarbon solvent while grinding the raw material, a reaction vessel for reacting raw materials comprising at least lithium sulfide and other sulfides in a hydrocarbon solvent by stirring the raw materials with a stirring blade, and a connecting pipe for circulating the raw materials between the grinder and the reaction vessel during the reaction.