mhurhangee/ep-ind-claims huggingface dataset:
A glass bottle inspection apparatus, having an inspection unit (U1, U2, U3) which comprises one or plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) configured to illuminate a glass bottle and at least one camera (CAM1, CAM2, CAM 3, CAM4) configured to image light reflected from the glass bottle, configured to detect a defect at a specific location of the glass bottle, the glass bottle inspection apparatus comprising: a controller configured to control operations of said one or plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) and said camera (CAM1, CAM2, CAM 3, CAM4); wherein said controller controls said one or plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) individually to emit a pulsed light in synchronism with an image capturing timing of said camera (CAM1, CAM2, CAM 3, CAM4); and characterised in that the defect at the specific location of the glass bottle comprises a blister in a bottle-mouth portion of the glass bottle, one of said plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) comprises an illuminating unit dedicated for inspection of blisters, and said controller detects a blister from an image captured by said at least one camera (CAM1, CAM2, CAM 3, CAM4) while said illuminating unit dedicated for inspection of blisters is turned on to emit a pulsed light, masks and removes an image area corresponding to the blister from an inspection area of the image captured by said at least one camera (CAM1, CAM2, CAM 3, CAM4) while the illuminating units other than said illuminating unit dedicated for inspection of blisters are turned on to emit pulsed lights, and detects a check defect from the remaining inspection area. a controller configured to control operations of said one or plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) and said camera (CAM1, CAM2, CAM 3, CAM4); wherein said controller controls said one or plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) individually to emit a pulsed light in synchronism with an image capturing timing of said camera (CAM1, CAM2, CAM 3, CAM4); and characterised in that the defect at the specific location of the glass bottle comprises a blister in a bottle-mouth portion of the glass bottle, one of said plural illuminating units (LED1, LED2, LED3, LED4, LED5, LED6) comprises an illuminating unit dedicated for inspection of blisters, and said controller detects a blister from an image captured by said at least one camera (CAM1, CAM2, CAM 3, CAM4) while said illuminating unit dedicated for inspection of blisters is turned on to emit a pulsed light, masks and removes an image area corresponding to the blister from an inspection area of the image captured by said at least one camera (CAM1, CAM2, CAM 3, CAM4) while the illuminating units other than said illuminating unit dedicated for inspection of blisters are turned on to emit pulsed lights, and detects a check defect from the remaining inspection area.
A method for applying an abrasive, the method comprising: applying, to a substrate, the integral combination of: a self-braze material wherein the self-braze material comprises a sintered sheet of: at least one first alloy of low melting point relative to the substrate and at least one second alloy of high melting point relative to the first alloy; an abrasive; and a matrix in which the abrasive is at least partially embedded; and heating to cause the self-braze material to braze to the substrate, the heating leaving at least a portion of the self-braze material with a composition comprising, in weight percent: cobalt 2.5-13.5; chromium 12-27; aluminum 5-7; yttrium 0.0-1.0; hafnium 0.0-1.0; silicon 1.0-3.0; tantalum 0.0-4.5; tungsten 0.0-6.5; rhenium 0.0-2.0; molybdenum 0.1-1.0; and the balance nickel. applying, to a substrate, the integral combination of: a self-braze material wherein the self-braze material comprises a sintered sheet of: at least one first alloy of low melting point relative to the substrate and at least one second alloy of high melting point relative to the first alloy; an abrasive; and a matrix in which the abrasive is at least partially embedded; and a self-braze material wherein the self-braze material comprises a sintered sheet of: at least one first alloy of low melting point relative to the substrate and at least one second alloy of high melting point relative to the first alloy; an abrasive; and a matrix in which the abrasive is at least partially embedded; and heating to cause the self-braze material to braze to the substrate, the heating leaving at least a portion of the self-braze material with a composition comprising, in weight percent: cobalt 2.5-13.5; chromium 12-27; aluminum 5-7; yttrium 0.0-1.0; hafnium 0.0-1.0; silicon 1.0-3.0; tantalum 0.0-4.5; tungsten 0.0-6.5; rhenium 0.0-2.0; molybdenum 0.1-1.0; and the balance nickel. cobalt 2.5-13.5; chromium 12-27; aluminum 5-7; yttrium 0.0-1.0; hafnium 0.0-1.0; silicon 1.0-3.0; tantalum 0.0-4.5; tungsten 0.0-6.5; rhenium 0.0-2.0; molybdenum 0.1-1.0; and the balance nickel.
Dough processing machine with a first conveyor belt for conveying a dough strip and with a cutting tool (30, 130) for cutting out dough blanks (101, 201), wherein the cutting tool (30, 130) has a drum (31, 131) which is mounted rotatably about a drum axis and which is provided on its periphery with outwardly projecting cutting edges (32, 132), with which the drum (31, 131) runs opposite to and/or on the first conveyor belt, wherein several individual cutting dies (33, 133) form the cutting edges (32, 132), wherein the cutting dies (33, 133) are arranged in cutting assemblies (34, 134), each cutting assembly having at least two cutting dies (33, 133), wherein a plurality of cutting assemblies (34, 134) are distributed over the circumference of the drum (31, 131), characterized in that the cutting dies (33, 133) of a cutting assembly (34, 134) are connected to one another via interruptions (35, 135) in the cutting edges (32, 132), and in that the two cutting dies (33, 133) are arranged at the end of the row of cutting assemblies (34, 134) at the end of the row of cutting dies (33, 133) of a cutting die assembly (34, 134) each have an interruption (35, 135), and the other cutting dies (33, 133) in central position between two further cutting dies (33, 133) each have two interruptions (35, 135).
A surface treatment composition comprising: on the basis of 100 wt% of a solid part of the composition, 35-45 wt% of a water-soluble polyurethane resin; 25-40 wt% of a water-soluble acrylic emulsion resin; 5-15 wt% of a curing agent; 3-10 wt% of a silane compound; 0.5-1.5 wt% of a titanium-based compound; 0.3-2.0 wt% of a zirconium-based compound; 1-3 wt% of phosphoric acid compound; 1-2 wt% of a coating adhesion enhancer; and 0.1-1 wt% of a lubricant, wherein the water-soluble acrylic emulsion resin is a reaction product of 80 to 99% by weight of at least one monomer selected from the group consisting of acrylic monomers, methacrylic monomers and acid ester vinyl monomers, and 1 to 20% by weight of alkoxy silane containing a double bond capable of addition polymerization reaction. on the basis of 100 wt% of a solid part of the composition, 35-45 wt% of a water-soluble polyurethane resin; 25-40 wt% of a water-soluble acrylic emulsion resin; 5-15 wt% of a curing agent; 3-10 wt% of a silane compound; 0.5-1.5 wt% of a titanium-based compound; 0.3-2.0 wt% of a zirconium-based compound; 1-3 wt% of phosphoric acid compound; 1-2 wt% of a coating adhesion enhancer; and 0.1-1 wt% of a lubricant, wherein the water-soluble acrylic emulsion resin is a reaction product of 80 to 99% by weight of at least one monomer selected from the group consisting of acrylic monomers, methacrylic monomers and acid ester vinyl monomers, and 1 to 20% by weight of alkoxy silane containing a double bond capable of addition polymerization reaction.
A system comprising: (a) a data acquisition module configured to produce a data set comprising one or more ERG parameter value(s); (b) a data processing module configured to process the data set by applying one or more transformation analyses to the data set to produce a statistically derived probability score, wherein said probability score represents a probability that a subject suffers from a psychiatric disease or has a predisposition thereto from previously measured one or more ERG parameters, wherein the psychiatric disease is a major depressive disorder, and (c) a display module configured to display the statistically derived probability score, wherein the system is configured to perform a method for determining whether a subject suffers from major depressive disorder or has a predisposition thereto, said method comprises measuring at least (i) the rod a-wave amplitude and/or (ii) the rod b-wave amplitude, in the subject, wherein (a) a rod a-wave amplitude, and/or a rod b-wave amplitude that is lower, relative to the corresponding parameter(s) measured in a control subject not suffering from MDD, or (b) a rod a-wave amplitude, and/or a rod b-wave amplitude that is substantially similar or lower, relative to the corresponding parameter(s) measured in a patient suffering from MDD, is indicative that said subject suffers from MDD or has a predisposition thereto, and wherein both age and gender are included as covariants in said one or more transformation analyses. (a) a data acquisition module configured to produce a data set comprising one or more ERG parameter value(s); (b) a data processing module configured to process the data set by applying one or more transformation analyses to the data set to produce a statistically derived probability score, wherein said probability score represents a probability that a subject suffers from a psychiatric disease or has a predisposition thereto from previously measured one or more ERG parameters, wherein the psychiatric disease is a major depressive disorder, and (c) a display module configured to display the statistically derived probability score, wherein the system is configured to perform a method for determining whether a subject suffers from major depressive disorder or has a predisposition thereto, said method comprises measuring at least (i) the rod a-wave amplitude and/or (ii) the rod b-wave amplitude, in the subject, wherein (a) a rod a-wave amplitude, and/or a rod b-wave amplitude that is lower, relative to the corresponding parameter(s) measured in a control subject not suffering from MDD, or (b) a rod a-wave amplitude, and/or a rod b-wave amplitude that is substantially similar or lower, relative to the corresponding parameter(s) measured in a patient suffering from MDD, is indicative that said subject suffers from MDD or has a predisposition thereto, and wherein both age and gender are included as covariants in said one or more transformation analyses.
A master device, comprising: a first interface to a single line interrupt request, IRQ, bus (326, 422) to which one or more slave devices are coupled; a second interface to a control data bus (330, 402) to which the one or more slave devices are also coupled; and a processing circuit coupled to the first interface and the second interface, the processing circuit adapted to: group the one or more slave devices into one or more groups, where each group is associated with a different IRQ signal; monitor the IRQ bus to ascertain when an IRQ signal is asserted by at least one slave device; identify a group with which the IRQ signal is associated; and scan the slave devices of the identified group to ascertain an asserting slave device which asserted the IRQ signal on the IRQ bus. a first interface to a single line interrupt request, IRQ, bus (326, 422) to which one or more slave devices are coupled; a second interface to a control data bus (330, 402) to which the one or more slave devices are also coupled; and a processing circuit coupled to the first interface and the second interface, the processing circuit adapted to: group the one or more slave devices into one or more groups, where each group is associated with a different IRQ signal; monitor the IRQ bus to ascertain when an IRQ signal is asserted by at least one slave device; identify a group with which the IRQ signal is associated; and scan the slave devices of the identified group to ascertain an asserting slave device which asserted the IRQ signal on the IRQ bus. group the one or more slave devices into one or more groups, where each group is associated with a different IRQ signal; monitor the IRQ bus to ascertain when an IRQ signal is asserted by at least one slave device; identify a group with which the IRQ signal is associated; and scan the slave devices of the identified group to ascertain an asserting slave device which asserted the IRQ signal on the IRQ bus.
A system for predicting a shape of an anatomical structure, the system comprising: at least one database configured to store a first set of training models, a second set of training models, and a subject model, wherein each model in the first set of training models corresponds to a model in the second set of training models, wherein the first set of training models and the subject model are characterized by a first parameter, and wherein the second set of training models is characterized by a second parameter; a training analysis module configured to determine a relationship between the first set of training models and the second set of training models; a subject analysis module configured to determine a relationship between the subject model and the first set of training models; and a prediction module configured to generate a predicted shape based on the relationship between the first set of training models and the second set of training models and on the relationship between the subject model and the first set of training models, the predicted shape being characterized by the second parameter, wherein the first set of training models comprises 2D medical image data or 2D anatomical models, and the second set of training models comprises 3D anatomical models. at least one database configured to store a first set of training models, a second set of training models, and a subject model, wherein each model in the first set of training models corresponds to a model in the second set of training models, wherein the first set of training models and the subject model are characterized by a first parameter, and wherein the second set of training models is characterized by a second parameter; a training analysis module configured to determine a relationship between the first set of training models and the second set of training models; a subject analysis module configured to determine a relationship between the subject model and the first set of training models; and a prediction module configured to generate a predicted shape based on the relationship between the first set of training models and the second set of training models and on the relationship between the subject model and the first set of training models, the predicted shape being characterized by the second parameter, wherein the first set of training models comprises 2D medical image data or 2D anatomical models, and the second set of training models comprises 3D anatomical models.
A pharmaceutical composition for use in treating or preventing atrial fibrillation or a symptom associated therewith in a subject in need thereof, comprising an effective amount of dofetilide, an effective amount of mexiletine, and a pharmaceutically acceptable carrier, preferably the mexiletine is mexiletine hydrochloride.
Method for harvesting electrical energy in a motor vehicle with regenerative braking, said vehicle being equipped to this end with an electrical capacitance device, for storing an electrical energy supplied by a rotating electrical machine of the vehicle during a regenerative braking operation, characterized in that, as a function of the initial speed of rotation of said rotating electrical machine, a choice is made to apply an energy harvesting strategy from at least the following two: - a first energy harvesting strategy favouring a high power supplied by said rotating electrical machine when said initial speed of rotation is above a first threshold; and - a second energy harvesting strategy favouring a high efficiency of said rotating electrical machine when said initial speed of rotation is below a second threshold, the second threshold being lower than the first threshold. - a first energy harvesting strategy favouring a high power supplied by said rotating electrical machine when said initial speed of rotation is above a first threshold; and - a second energy harvesting strategy favouring a high efficiency of said rotating electrical machine when said initial speed of rotation is below a second threshold, the second threshold being lower than the first threshold.
A method of controlling a battery (5; 10) having switched electric cells, the battery comprising a first control circuit and a plurality of modules (E i) arranged between first and second terminals (Phase, Neutral), each module (E i) comprising third and fourth terminals (B+, B-), at least one of the third and fourth terminals of each module being coupled to one of the third and fourth terminals of another module, each module comprising electric cells (C 1, C 2, C 3, C 4) and switches coupling the cells to one another and to the third and fourth terminals of the module and a second switch control circuit, the battery further comprising at least one data transmission bus (BUS; BUS0, BUS1) coupling the first control circuit to each second control circuit and a sensor of the current flowing through the first terminal, the number of current sensors of the battery being inferior to the number of electric cells of the battery, the method comprising the reception by the first control circuit of a new set point for the delivery of a voltage, of a current, and/or of a number of electric cells to be connected between the first and second terminals (Phase, Neutral) and comprising the transmission, by the first control circuit to the second control circuits, of control signals for the connection or the disconnection of at least one of the electric cells (C 1, C 2, C 3, C 4) of the modules (E i) to follow said set point, the method being characterized in that it comprises the successive steps of: updating a first counter representative of the quantity of charges flowing through the first terminal based on the sensor measurements; for each electric cell, for each connection of the electric cell to the other electric cells, storing into first data the value of the first counter on connection of the electric cell and for each disconnection of the electric cell from the other electric cells, storing a second counter equal to the difference between the value of the first counter on disconnection of the electric cell and the first data of said electric cell. updating a first counter representative of the quantity of charges flowing through the first terminal based on the sensor measurements; for each electric cell, for each connection of the electric cell to the other electric cells, storing into first data the value of the first counter on connection of the electric cell and for each disconnection of the electric cell from the other electric cells, storing a second counter equal to the difference between the value of the first counter on disconnection of the electric cell and the first data of said electric cell.
Ventilation device comprising at least one fan and a housing which comprises air ducts with air duct openings for supplying fresh air and for removing exhaust air, which lead from a first end of the housing to a second end of the housing, wherein the air duct openings located at the second end of the housing is configured to be closed or opened with the aid of sealing plates, and wherein the ventilation device comprises at least one motor for activating deflection axes located in the housing, which displace the sealing plates into a closing or opening position by means of a translatory movement, characterized in that the housing is made of plastic particle foam.
An information processing apparatus comprising: a generation means configured to generate, in a case that an object is extracted from a document comprising a plurality of objects, object data including a word indicating a characteristic of the object and store the generated word in a storage area; a storage means configured to store a table holding words indicating characteristics of objects in association with security levels; and a degradation means configured to determine, in a case that the information processing apparatus performs output processing using an object, whether a word indicating a characteristic of the object is associated with a security level in the table, and if it is determined that the word indicating the characteristic of the object is associated with a security level, to degrade the object according to the determined security level corresponding to the word indicating the characteristic of the object and an attribute of the object. a generation means configured to generate, in a case that an object is extracted from a document comprising a plurality of objects, object data including a word indicating a characteristic of the object and store the generated word in a storage area; a storage means configured to store a table holding words indicating characteristics of objects in association with security levels; and a degradation means configured to determine, in a case that the information processing apparatus performs output processing using an object, whether a word indicating a characteristic of the object is associated with a security level in the table, and if it is determined that the word indicating the characteristic of the object is associated with a security level, to degrade the object according to the determined security level corresponding to the word indicating the characteristic of the object and an attribute of the object.
A method for nucleic acid hybridization of a target nucleic acid and a bait nucleic acid, comprising contacting a target nucleic acid and a bait nucleic acid with a composition to form a hybridization mixture, said composition comprising (i) a salt of a divalent cation that has a concentration in the range from 100 mM to 600 mM, (ii) a buffering agent, wherein said salt and said buffering agent are present in a molar ratio of 2.5: 1 to 60: 1, and (iii) a volume-excluding/thickening agent that has a concentration in a range from 0.002% to 0.1%, and incubating the mixture at two hybridization temperatures, which can be different or the same, wherein the volume-excluding/thickening agent is selected from the group consisting of hydroxypropyl methyl cellulose (HPMC) and methyl cellulose. contacting a target nucleic acid and a bait nucleic acid with a composition to form a hybridization mixture, said composition comprising (i) a salt of a divalent cation that has a concentration in the range from 100 mM to 600 mM, (ii) a buffering agent, wherein said salt and said buffering agent are present in a molar ratio of 2.5: 1 to 60: 1, and (iii) a volume-excluding/thickening agent that has a concentration in a range from 0.002% to 0.1%, and (i) a salt of a divalent cation that has a concentration in the range from 100 mM to 600 mM, (ii) a buffering agent, wherein said salt and said buffering agent are present in a molar ratio of 2.5: 1 to 60: 1, and (iii) a volume-excluding/thickening agent that has a concentration in a range from 0.002% to 0.1%, and incubating the mixture at two hybridization temperatures, which can be different or the same, wherein the volume-excluding/thickening agent is selected from the group consisting of hydroxypropyl methyl cellulose (HPMC) and methyl cellulose.