mhurhangee/ep-ind-claims huggingface dataset:
A centrifugal separator for separating a liquid phase from a crankcase gas, the centrifugal separator comprising: a housing, a separation chamber inside the housing, a rotor shaft extending through the separation chamber in an axial direction, a rotor for separating the liquid phase arranged inside the separation chamber and connected to the rotor shaft, a bearing arranged at an end portion of the rotor shaft, an inlet for the crankcase gas, a gas outlet from the separation chamber for separated gas, and a liquid outlet from the separation chamber for the separated liquid phase, wherein the rotor shaft is journalled in the housing via the bearing, wherein the end portion of the rotor shaft extends through the bearing outside the separation chamber, wherein a ring-shaped sealing gap is formed between the housing and a member connected to the rotor shaft outside the separation chamber, and wherein the liquid outlet is arranged, seen in relation to the axial direction, radially outside the bearing and radially inside a radially outer end of the ring-shaped sealing gap, characterized in that the liquid outlet comprises a number of through holes extending through the housing and being arranged circumferentially around the bearing, and wherein at least one of the number of through holes has the form of a funnel with the narrow portion close to, or at the separation chamber and its wider portion a distance from the separation chamber. a housing, a separation chamber inside the housing, a rotor shaft extending through the separation chamber in an axial direction, a rotor for separating the liquid phase arranged inside the separation chamber and connected to the rotor shaft, a bearing arranged at an end portion of the rotor shaft, an inlet for the crankcase gas, a gas outlet from the separation chamber for separated gas, and a liquid outlet from the separation chamber for the separated liquid phase, wherein the rotor shaft is journalled in the housing via the bearing, wherein the end portion of the rotor shaft extends through the bearing outside the separation chamber, wherein a ring-shaped sealing gap is formed between the housing and a member connected to the rotor shaft outside the separation chamber, and wherein the liquid outlet is arranged, seen in relation to the axial direction, radially outside the bearing and radially inside a radially outer end of the ring-shaped sealing gap, characterized in that the liquid outlet comprises a number of through holes extending through the housing and being arranged circumferentially around the bearing, and wherein at least one of the number of through holes has the form of a funnel with the narrow portion close to, or at the separation chamber and its wider portion a distance from the separation chamber.
Medium-voltage static series synchronous compensator adapted for electrically connecting two electrical distribution networks (A, B) or for connecting two portions of the same electrical distribution network, comprising a line transformer and a low-voltage inverter, the low-voltage inverter being electrically connected to the line transformer, the line transformer having two coupling points (20A, 20B) each adapted to be connected to one of the two electrical networks (A, B) or to one of the two portions of a single electrical distribution network, and the line transformer comprising a primary magnetic circuit and a secondary magnetic circuit, the medium-voltage static series synchronous compensator being characterized in that the transformer comprises a bypass circuit magnetically connecting the primary and secondary to enable the behavior of the secondary magnetic circuit to be made independent of the behavior of the primary magnetic circuit in the event of application to the primary magnetic circuit of the voltage of a network after the inverter has stalled on a three-phase network.
A VCSEL array comprising several VCSELs arranged side by side on a common substrate, each VCSEL being formed of at least a top mirror (5, 14), an active region, a current injection layer and an undoped bottom semiconductor mirror, said current injection layer being arranged between said active region and said bottom semiconductor mirror, wherein - at least an upper layer of said substrate is electrically conducting, - trenches and/or holes are formed between said bottom semiconductor mirrors of said VCSELs to said upper layer of said substrate, characterised in that a metallization electrically connects said upper layer of said substrate with said current injection layer through said trenches and/or holes. - at least an upper layer of said substrate is electrically conducting, - trenches and/or holes are formed between said bottom semiconductor mirrors of said VCSELs to said upper layer of said substrate,
An emergency guidance display (8, 16) comprising three or more light points arranged in a line and a control means wherein the control means illuminates said light points sequentially from one end of the line to the other in a first mode of operation and sequentially in the opposite direction in a second mode of operation, characterised in that said light points comprise two groups, and in which the control means illuminates the light points of each group sequentially along said line in opposite directions in a third mode of operation.
An automated computerized method for identifying linear tokens in an image, a linear token being a connected region in the image wherein adjacent pixels of the region have differing color measurement values that fall within a cylinder in an RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model, this model taking into account an ambient illuminant in addition to a direct illuminant, the method comprising the steps: • providing an image file representing the image in a computer memory; • testing, for each pixel, a local area around the pixel to determine whether the color values of the pixel and of its neighboring pixels fall within a cylinder in the RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model; and if this is the case • designating the pixel and its neighboring pixels as a linear token, characterised in that a linear token determined according to the above steps is filtered out, if the change between two spatially adjacent pixels within the linear token is greater than a selected percentage of the difference between the brightest pixel and the darkest pixel within the linear token. • providing an image file representing the image in a computer memory; • testing, for each pixel, a local area around the pixel to determine whether the color values of the pixel and of its neighboring pixels fall within a cylinder in the RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model; and if this is the case • designating the pixel and its neighboring pixels as a linear token, characterised in that a linear token determined according to the above steps is filtered out, if the change between two spatially adjacent pixels within the linear token is greater than a selected percentage of the difference between the brightest pixel and the darkest pixel within the linear token.
A printing system comprising: at least one physical memory device configured to store uniformity compensation logic; and one or more processors coupled with the at least one physical memory device and configured to execute the uniformity compensation logic to: receive, from a measurement module, first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic, a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data. at least one physical memory device configured to store uniformity compensation logic; and one or more processors coupled with the at least one physical memory device and configured to execute the uniformity compensation logic to: receive, from a measurement module, first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic, a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data. receive, from a measurement module, first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic, a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data.
A peptide consisting of a sequence of 5 to 30, preferably 6 to 12, most preferably 10 to 12 amino acids, wherein said peptide is capable of binding to a surface comprising magnetic iron oxide, and wherein (a) at least 2/3 of said amino acids are selected from Asp and Glu; and (b) at least one amino acid which has a side chain which does not bear a net charge at neutral pH is present, selected from Gly, Ser, Ala, Asn, Cys, Gln, His, Ile, Leu, Met, Phe, Pro, Thr, Trp, Tyr, Val and selenocystein; and flanked on either side by at least one, preferably at least two amino acids as defined in (a). (a) at least 2/3 of said amino acids are selected from Asp and Glu; and (b) at least one amino acid which has a side chain which does not bear a net charge at neutral pH is present, selected from Gly, Ser, Ala, Asn, Cys, Gln, His, Ile, Leu, Met, Phe, Pro, Thr, Trp, Tyr, Val and selenocystein; and flanked on either side by at least one, preferably at least two amino acids as defined in (a).
Method for stabilising an enzyme, characterised in that the enzyme is stored for a period of at least 2 weeks in the presence of a stable coenzyme, in which the stable coenzyme is selected from the compound of formula and compounds with general formula: with A = adenine or an analogue thereof, T = each independently O, S, U = each independently OH, SH, BH 3 ', BCNH 2 ', V = each independently OH or a phosphate group or two groups that form a cyclic phosphate group; W = COOR, CON 2, COR, CSN 2 with R = each independently H or C 1 -C 2 alkyl, X 1, X 2 = each independently O, CH 2, CHCH 3, C(CH 3) 2, NH, NCH 3, Y = NH, S, O, CH 2, Z = a linear or cyclic organic residue, providing that Z and the pyridine residue are not linked by a glycosidic compound or a salt or if necessary a reduced form thereof. A = adenine or an analogue thereof, T = each independently O, S, U = each independently OH, SH, BH 3 ', BCNH 2 ', V = each independently OH or a phosphate group or two groups that form a cyclic phosphate group; W = COOR, CON 2, COR, CSN 2 with R = each independently H or C 1 -C 2 alkyl, X 1, X 2 = each independently O, CH 2, CHCH 3, C(CH 3) 2, NH, NCH 3, Y = NH, S, O, CH 2, Z = a linear or cyclic organic residue, providing that Z and the pyridine residue are not linked by a glycosidic compound or a salt or if necessary a reduced form thereof.
A method for repairing a metallic article, comprising: providing a metallic article having a gap defect; removing material of an area formed with the gap defect from the metallic article to form a gap; disposing repair material into the formed gap; sealing and vacuumizing a bonding land defined between the metallic article and the repair material; and treating the repair material and the metallic article using hot isostatic pressing to perform the repair, wherein sealing the bonding land is performed by sealing the surface area of the bonding land, characterized in that the surface area of the bonding land, and the sealing material form a discontinuous connecting bonding line and define an opening on the surface area; wherein sealing the surface area of the bonding land is performed using a powder micro-spark deposition process. providing a metallic article having a gap defect; removing material of an area formed with the gap defect from the metallic article to form a gap; disposing repair material into the formed gap; sealing and vacuumizing a bonding land defined between the metallic article and the repair material; and treating the repair material and the metallic article using hot isostatic pressing to perform the repair, wherein sealing the bonding land is performed by sealing the surface area of the bonding land, characterized in that the surface area of the bonding land, and the sealing material form a discontinuous connecting bonding line and define an opening on the surface area; wherein sealing the surface area of the bonding land is performed using a powder micro-spark deposition process.
A method of fabricating an optical fiber preform, the optical fiber preform having a core region, an inner cladding region surrounding the core region, a trench region surrounding the inner cladding region, and an outer cladding region surrounding the trench region, comprising a step of: forming the trench region on an outer periphery surface of a core member having the core region and the inner cladding region; the step of forming the trench region including, forming a refractive index varying region arranged between the inner cladding region and the trench region, and having a refractive index continuously increasing from the trench region to the inner cladding region, wherein the step of forming the refractive index varying region on the inner cladding region includes stacking a plurality of glass layers in a radial direction, and a dope amount of fluorine into the plurality of glass layers is changed in a step by step manner. forming the trench region on an outer periphery surface of a core member having the core region and the inner cladding region; the step of forming the trench region including, forming a refractive index varying region arranged between the inner cladding region and the trench region, and having a refractive index continuously increasing from the trench region to the inner cladding region, wherein the step of forming the refractive index varying region on the inner cladding region includes stacking a plurality of glass layers in a radial direction, and a dope amount of fluorine into the plurality of glass layers is changed in a step by step manner.
A compound selected from the group consisting of: -6-fluoro-4-((2 S,4R)-2-(pyridin-2-yl)-4-(trifluoromethyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; -6-fluoro-4-((2 S,4 S)-2-(4-fluorophenyl)-4-hydroxy-4-(trifluoromethyl)piperidin-1-yl)-N-(pyrimidin-4-yl)chroman-7-sulfonamide; -4-((2 S,4 S)-4-(difluoromethoxy)-2-(4-fluorophenyl)piperidin-1-yl)-6-fluoro- N -(pyrimidin-4-yl)chroman-7-sulfonamide; and -6-fluoro-4-((2 R,4 R)-2-methyl-4-(3-(trifluoromethyl)phenyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; or a pharmaceutically acceptable thereof. -6-fluoro-4-((2 S,4R)-2-(pyridin-2-yl)-4-(trifluoromethyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; -6-fluoro-4-((2 S,4 S)-2-(4-fluorophenyl)-4-hydroxy-4-(trifluoromethyl)piperidin-1-yl)-N-(pyrimidin-4-yl)chroman-7-sulfonamide; -4-((2 S,4 S)-4-(difluoromethoxy)-2-(4-fluorophenyl)piperidin-1-yl)-6-fluoro- N -(pyrimidin-4-yl)chroman-7-sulfonamide; and -6-fluoro-4-((2 R,4 R)-2-methyl-4-(3-(trifluoromethyl)phenyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; or a pharmaceutically acceptable thereof.
Method for laying an anode system for cathodic corrosion protection, comprising the following steps: - laying a carbon fibre multifilaments in a planar manner; - laying at least two primary anode ribbons, which are arranged so as to be spaced apart from one another, such that the carbon fibre multifilament is arranged between the primary anode ribbons and the primary anode ribbons are connected to the carbon fibre multifilament in an electrically conductive manner in a number of contact regions, characterised in that, - the carbon fibre multifilament is arranged in a meandering configuration or in individual strips that are arranged in parallel with one another and that are interconnected by the anode ribbon. - laying a carbon fibre multifilaments in a planar manner; - laying at least two primary anode ribbons, which are arranged so as to be spaced apart from one another, such that the carbon fibre multifilament is arranged between the primary anode ribbons and the primary anode ribbons are connected to the carbon fibre multifilament in an electrically conductive manner in a number of contact regions, characterised in that, - the carbon fibre multifilament is arranged in a meandering configuration or in individual strips that are arranged in parallel with one another and that are interconnected by the anode ribbon.
A molded article formed from a polymer composition, the polymer composition consisting essentially of: an ethylene homopolymer or ethylene/alpha-olefin copolymer, wherein the ethylene homopolymer or ethylene/alpha-olefin copolymer has a density of 0.920 g/cc to 0.968 g/cc, a melt index, I2, of greater than 7 g/10 min, and a molecular weight distribution curve (dWf/dlgM vs. lgM), as measured by gel permeation chromatography, has two inflection points, and a CDF IR /CDF LS ratio of greater than 2.0; greater than 20 ppm of a fluoropolymer, wherein the fluoropolymer is polytetrafluoroethylene; and optionally, up to 5 wt.% of one or more of processing aids, acid neutralizers, stabilizers, phosphites, antioxidants, metal de-activators, pigments or colorants, or fillers; wherein the molded article exhibits an oxygen transmission rate [OTR, (cc*mm)/(m 2 *day*atm)] ≤ -3181 (cc 2 *mm)/(g*m 2 *day*atm) X [Density, g/cc] + 3077 (cc*mm)/(m 2 *day*atm). an ethylene homopolymer or ethylene/alpha-olefin copolymer, wherein the ethylene homopolymer or ethylene/alpha-olefin copolymer has a density of 0.920 g/cc to 0.968 g/cc, a melt index, I2, of greater than 7 g/10 min, and a molecular weight distribution curve (dWf/dlgM vs. lgM), as measured by gel permeation chromatography, has two inflection points, and a CDF IR /CDF LS ratio of greater than 2.0; greater than 20 ppm of a fluoropolymer, wherein the fluoropolymer is polytetrafluoroethylene; and optionally, up to 5 wt.% of one or more of processing aids, acid neutralizers, stabilizers, phosphites, antioxidants, metal de-activators, pigments or colorants, or fillers; wherein the molded article exhibits an oxygen transmission rate [OTR, (cc*mm)/(m 2 *day*atm)] ≤ -3181 (cc 2 *mm)/(g*m 2 *day*atm) X [Density, g/cc] + 3077 (cc*mm)/(m 2 *day*atm).
A formulation for use in a method of treating apraxia and/or autism spectrum disorder, the method comprising orally administering to an individual in need thereof an effective amount of a formulation comprising: a) eicosapentaenoic acid in an amount of from 500mg to 3000mg per unit dose; b) docosohexaenoic acid in an amount of from 100mg to 400mg per unit dose; c) α -tocopherol in an amount of from 500mg to 3000mg per unit dose; and d) γ -tocopherol present in an amount of from 200mg to 1000mg per unit dose; wherein the ratio of EPA to DHA is in a range of from about 1.5:1 to about 5:1. a) eicosapentaenoic acid in an amount of from 500mg to 3000mg per unit dose; b) docosohexaenoic acid in an amount of from 100mg to 400mg per unit dose; c) α -tocopherol in an amount of from 500mg to 3000mg per unit dose; and d) γ -tocopherol present in an amount of from 200mg to 1000mg per unit dose;
A computerized method comprising: providing a compiled function in a library by processing a function specification file, the compiled function compiled for a first operating system, and the function specification file including a keyword that indicates that stack checking code is to be added to the compiled function, executing an application compiled for a second operating system in the first operating system using the compiled function and a loader, wherein the execution of the application occurs without the presence of the second operating system and the compiled function translates a function call for the second operating system to a corresponding function call in the first operating system, the stack checking code enforces a particular stack variable management scheme used by the second operating system for call stack manipulation when the compiled function is called, the particular stack variable management scheme used by the second operating system having a different convention for when to put function parameters onto the call stack and when to take these parameters off the stack than the stack variable management scheme used by the first operating system, and the loader is a first operating system based loader that loads and executes applications that are either first operating system or second operating system based applications. providing a compiled function in a library by processing a function specification file, the compiled function compiled for a first operating system, and the function specification file including a keyword that indicates that stack checking code is to be added to the compiled function, executing an application compiled for a second operating system in the first operating system using the compiled function and a loader, wherein the execution of the application occurs without the presence of the second operating system and the compiled function translates a function call for the second operating system to a corresponding function call in the first operating system, the stack checking code enforces a particular stack variable management scheme used by the second operating system for call stack manipulation when the compiled function is called, the particular stack variable management scheme used by the second operating system having a different convention for when to put function parameters onto the call stack and when to take these parameters off the stack than the stack variable management scheme used by the first operating system, and the loader is a first operating system based loader that loads and executes applications that are either first operating system or second operating system based applications.
Method for operating a steam cycle process which is implemented in an apparatus which has an evaporator or vapor generator for evaporating a liquid working medium and an expander, which is lubricated by means of a lubricant, for performing mechanical work, wherein the method has the following method steps: a) the liquid working medium is supplied to the evaporator, in which it is evaporated and supplied in vapor form to the expander; b) the expander is also supplied, as lubricant, an ionic liquid which forms two liquid phases with the liquid working medium at room temperature; and c) the ionic liquid which forms the lubricant for the expander is separated from the working medium upstream of the evaporator, characterized in that the solubility of the ionic lubricant in the working medium is <0.1 m% and in that the solubility of the working medium in the ionic lubricant is <1 m%. a) the liquid working medium is supplied to the evaporator, in which it is evaporated and supplied in vapor form to the expander; b) the expander is also supplied, as lubricant, an ionic liquid which forms two liquid phases with the liquid working medium at room temperature; and c) the ionic liquid which forms the lubricant for the expander is separated from the working medium upstream of the evaporator,