mhurhangee/ep-ind-claims huggingface dataset:
A hair pack configured for the user to wear on his head comprising: a first sheet formed in an elliptical/oval shape; and a second sheet formed in a shape corresponding to said first sheet and defining an opening, said first and second sheets (120, 110) being sealed along a sealing line by using at least one of sewing, heat sealing or an adhesive, wherein an inner space is formed between the first and second sheets (120, 110) said hair pack comprising a pack agent for treating the hair of said user accommodated into said inner space, wherein the first sheet includes a first end portion and a second end portion that is wider than the first end portion, and wherein the opening is arranged in the second sheet closer to said first end portion than said second end portion of said first sheet. a first sheet formed in an elliptical/oval shape; and a second sheet formed in a shape corresponding to said first sheet and defining an opening, said first and second sheets (120, 110) being sealed along a sealing line by using at least one of sewing, heat sealing or an adhesive, wherein an inner space is formed between the first and second sheets (120, 110) said hair pack comprising a pack agent for treating the hair of said user accommodated into said inner space, wherein the first sheet includes a first end portion and a second end portion that is wider than the first end portion, and wherein the opening is arranged in the second sheet closer to said first end portion than said second end portion of said first sheet.
A process for the extraction of inulin, which consists of: a) comminuting plant material b) adding a solvent to the comminuted plant material c) subjecting the mixture of comminuted plant material and solvent to an ultrahigh temperature treatment at 95 - 150°C over a period of 5 - 300 seconds. d) separating solid plant material from the liquid phase. a) comminuting plant material b) adding a solvent to the comminuted plant material c) subjecting the mixture of comminuted plant material and solvent to an ultrahigh temperature treatment at 95 - 150°C over a period of 5 - 300 seconds. d) separating solid plant material from the liquid phase.
A polishing device, comprising: - a polishing platen rotatable about an axis, and - a polishing pad attached to the polishing platen for polishing a specimen, characterised in that the polishing device comprises: - a moisture sensor comprising a contact surface for contacting the polishing pad, and a first, a second and a third electrical contact element (101, 102, 103) electrically isolated from each other, the electrical contact elements (101, 102, 103) being disposed within the moisture sensor so that they are exposed at the contact surface, wherein the contact surface of the moisture sensor is arranged in contact with the surface of the polishing pad, and - means (106, 507) for measuring the capacitance between the first electrical contact element and the polishing platen and the resistance between the second electrical contact element and the third electrical contact element. - a polishing platen rotatable about an axis, and - a polishing pad attached to the polishing platen for polishing a specimen, - a moisture sensor comprising a contact surface for contacting the polishing pad, and a first, a second and a third electrical contact element (101, 102, 103) electrically isolated from each other, the electrical contact elements (101, 102, 103) being disposed within the moisture sensor so that they are exposed at the contact surface, wherein the contact surface of the moisture sensor is arranged in contact with the surface of the polishing pad, and - means (106, 507) for measuring the capacitance between the first electrical contact element and the polishing platen and the resistance between the second electrical contact element and the third electrical contact element.
A method of detecting an amount of ice stored in a storage bin used to collect ice made by an ice maker of a refrigerator, the ice maker having an ice detecting sensor attached thereto, the method comprising: applying heat to the ice detecting sensor of the ice maker through a sensor heater; and detecting an amount stored in the storage bin, characterized in that the method further comprises: controlling heat application according to the detected amount, wherein in controlling heat application, the application of heat by the sensor heater is stopped according to whether or not the storage bin is full or nearly full of ice as detected by the ice detecting sensor. applying heat to the ice detecting sensor of the ice maker through a sensor heater; and detecting an amount stored in the storage bin, characterized in that the method further comprises: controlling heat application according to the detected amount, wherein in controlling heat application, the application of heat by the sensor heater is stopped according to whether or not the storage bin is full or nearly full of ice as detected by the ice detecting sensor. controlling heat application according to the detected amount, wherein in controlling heat application, the application of heat by the sensor heater is stopped according to whether or not the storage bin is full or nearly full of ice as detected by the ice detecting sensor.
A material comprising a transparent substrate, on at least one surface of which is deposited a stack of layers comprising, from the substrate, three silver-based functional metal layers, F1, F2 and F3, with physical thicknesses EF1, EF2 and EF3 respectively, and four dielectric assemblies of layers, E1, E2, E3 and E4, with optical thicknesses are EO1, EO2, EO3 and EO4 respectively, each of the silver-based functional metal layers, F1, F2 and F3, being positioned respectively between the two dielectric assemblies of layers, E1 and E2, E2 and E3, and E3 and E4, said material being characterized in that: - the ratio of the physical thickness EF1 of the functional metal layer F1 to the physical thickness EF2 of the functional metal layer F2 is between 0.95 and 1.05; - the physical thickness EF3 of the functional metal layer F3 is greater than the physical thicknesses, EF1 and EF2, of the functional layers F1 and F2; - the optical thickness EO2 of the dielectric assembly of layer E2 is between 60 and 80 nm; - the optical thicknesses EO1, EO2, EO3 and EO4 are such that EO2 < EO4 < EO1 < EO3. - the ratio of the physical thickness EF1 of the functional metal layer F1 to the physical thickness EF2 of the functional metal layer F2 is between 0.95 and 1.05; - the physical thickness EF3 of the functional metal layer F3 is greater than the physical thicknesses, EF1 and EF2, of the functional layers F1 and F2; - the optical thickness EO2 of the dielectric assembly of layer E2 is between 60 and 80 nm; - the optical thicknesses EO1, EO2, EO3 and EO4 are such that EO2 < EO4 < EO1 < EO3.
An epicycloidal gear train comprising a central pinion, an outer crown and satellite pinions engaging the central pinion and the outer crown and each mounted freely rotatable on a satellite carrier, the gear train comprising a first lubrication oil circuit for the contact areas of the gear teeth of the satellite pinions with the central pinion and a second lubrication oil circuit for the axes of the satellite pinions, an annular cup being integral with the satellite carrier and open radially inward, characterized in that the cup is divided into a circumferential succession of first basins of the first oil circuit and second basinss of the second oil circuit, the first basins being fluidly separated from the second basins characterized in that the cup comprises two annular walls (56a, 56b) axially facing, the annular wall of which is furthest from a median radial plane of the gear train has openings opening into the second basins.
A method of performing an arithmetic operation by a processing apparatus, the method comprising: determining a polynomial expression approximating an arithmetic operation to be performed on a n-bits variable, where n is a natural number; determining a variable section to which the n-bits variable belongs, a range of variables that can be input to the arithmetic operation being non-uniformly split into a plurality of variable sections based on errors between the arithmetic operation and the polynomial expressions, and a size of each variable section being small when an error is large, and being large when an error is small; adaptively determining m upper bits of the n-bits variable for addressing a look-up table, LUT, according to the size of each variable section, wherein a larger number of the m upper bits is determined when the size of the variable section is small and a smaller number of the m upper bits is determined when the size of variable section is large, where m is a natural number; setting the determined m upper bits as addresses of the LUT and a value of (n-m) lower bits of the n-bits variable as input variables of the polynomial expression; obtaining coefficients of the polynomial expression from the LUT by addressing the LUT using a value of the m upper bits; and performing the arithmetic operation by calculating a result value of the polynomial expression using the input variables and the coefficients. determining a polynomial expression approximating an arithmetic operation to be performed on a n-bits variable, where n is a natural number; determining a variable section to which the n-bits variable belongs, a range of variables that can be input to the arithmetic operation being non-uniformly split into a plurality of variable sections based on errors between the arithmetic operation and the polynomial expressions, and a size of each variable section being small when an error is large, and being large when an error is small; adaptively determining m upper bits of the n-bits variable for addressing a look-up table, LUT, according to the size of each variable section, wherein a larger number of the m upper bits is determined when the size of the variable section is small and a smaller number of the m upper bits is determined when the size of variable section is large, where m is a natural number; setting the determined m upper bits as addresses of the LUT and a value of (n-m) lower bits of the n-bits variable as input variables of the polynomial expression; obtaining coefficients of the polynomial expression from the LUT by addressing the LUT using a value of the m upper bits; and performing the arithmetic operation by calculating a result value of the polynomial expression using the input variables and the coefficients.
A damping apparatus for controlling machine-induced vibrations in a workpiece during a machining operation, the damping apparatus comprising: a fixture base; and a plurality of grippers coupled to the fixture base, wherein each one of the plurality of grippers is selectively extendable and retractable relative to the fixture base to be selectively connected to the workpiece, wherein connection of one or more of the plurality of grippers to the workpiece modifies a natural frequency of the workpiece, wherein the natural frequency of the workpiece is modified by selecting one or more locations on the workpiece and selectively connecting one or more of the plurality of grippers to the workpiece at the one or more locations, further comprising a computing device that is operable to: determine the natural frequency of at least a portion of the workpiece by analyzing a real-time model of the workpiece as held by a plurality of workpiece holders; and select the one or more locations on the workpiece for connection of the one or more of the plurality of grippers such that a modified natural frequency of the portion of the workpiece is less than a frequency of an oscillating force applied to the workpiece by a machine tool during the machining operation. a fixture base; and a plurality of grippers coupled to the fixture base, wherein each one of the plurality of grippers is selectively extendable and retractable relative to the fixture base to be selectively connected to the workpiece, wherein connection of one or more of the plurality of grippers to the workpiece modifies a natural frequency of the workpiece, wherein the natural frequency of the workpiece is modified by selecting one or more locations on the workpiece and selectively connecting one or more of the plurality of grippers to the workpiece at the one or more locations, further comprising a computing device that is operable to: determine the natural frequency of at least a portion of the workpiece by analyzing a real-time model of the workpiece as held by a plurality of workpiece holders; and select the one or more locations on the workpiece for connection of the one or more of the plurality of grippers such that a modified natural frequency of the portion of the workpiece is less than a frequency of an oscillating force applied to the workpiece by a machine tool during the machining operation. determine the natural frequency of at least a portion of the workpiece by analyzing a real-time model of the workpiece as held by a plurality of workpiece holders; and select the one or more locations on the workpiece for connection of the one or more of the plurality of grippers such that a modified natural frequency of the portion of the workpiece is less than a frequency of an oscillating force applied to the workpiece by a machine tool during the machining operation.
A variable damping shock absorber, comprising a sleeve and a piston rod, one end of the sleeve being opened and the other end being closed, one end of the piston rod being inserted into through the opening of the sleeve and being slideably provided in an axial direction inside the sleeve, whereby one friction plate or at least two friction plates (41, 42, 43) is/are arranged in the axial direction between an inner wall of the sleeve and an outer wall of the piston rod, characterised in that said friction plates (4, 41, 42, 43) are fixed in the axial direction on the inner wall of the sleeve, and a sliding friction force between the friction plates (4, 41, 42, 43) and the outer wall of the piston rod is configured to be reduced from said closed end to said open end of the sleeve.
A fiber placement system comprising: a motion system comprising a robotic arm; a fiber-placement layup mandrel mounted on said robotic arm; and a fiber-placement delivery system comprising a delivery head, said robotic arm operable for movement of said fiber-placement layup mandrel with respect to and proximate said delivery head for fabrication of a composite fiber part, characterized in that said motion system is configured to: move the composite fiber-placement layup mandrel from said fiber-placement delivery system to a larger layup; and transfer the composite fiber part from said fiber-placement layup mandrel to the larger layup. a motion system comprising a robotic arm; a fiber-placement layup mandrel mounted on said robotic arm; and a fiber-placement delivery system comprising a delivery head, said robotic arm operable for movement of said fiber-placement layup mandrel with respect to and proximate said delivery head for fabrication of a composite fiber part, characterized in that said motion system is configured to: move the composite fiber-placement layup mandrel from said fiber-placement delivery system to a larger layup; and transfer the composite fiber part from said fiber-placement layup mandrel to the larger layup. move the composite fiber-placement layup mandrel from said fiber-placement delivery system to a larger layup; and transfer the composite fiber part from said fiber-placement layup mandrel to the larger layup.
Inductive component, having: a planar printed conductor structure which comprises an upper side and an underside, wherein the upper side is arranged opposite the underside, and a ferromagnetic core, which encloses the planar printed conductor structure along a predefined section, wherein the ferromagnetic core incorporates at least one gap in a region of the upper side and/or underside of the planar printed conductor structure, so that a virtual line, which is oriented perpendicularly to the upper side or underside, also runs through such a gap, wherein the ferromagnetic core in this region of the upper side and/or underside of the planar printed conductor structure comprises a material with ferromagnetic powder particles. a planar printed conductor structure which comprises an upper side and an underside, wherein the upper side is arranged opposite the underside, and a ferromagnetic core, which encloses the planar printed conductor structure along a predefined section, wherein the ferromagnetic core incorporates at least one gap in a region of the upper side and/or underside of the planar printed conductor structure, so that a virtual line, which is oriented perpendicularly to the upper side or underside, also runs through such a gap, wherein the ferromagnetic core in this region of the upper side and/or underside of the planar printed conductor structure comprises a material with ferromagnetic powder particles.
An immunogenic composition comprising an attenuated dengue type 4 virus or an attenuated chimeric dengue virus comprising (a) a nucleic acid encoding structural proteins C, prM, and E from dengue serotype 1, dengue serotype 2, dengue serotype 3, or dengue serotype 4; and (b) a nucleic acid comprising remaining coding and non-coding regions of a dengue serotype 4 virus (DEN4 backbone), wherein the DEN4 backbone comprises the Δ30 nucleotide deletion in the 3' untranslated region corresponding to nucleotides 10478-10507 of SEQ ID NO:14 (DEN4Δ30 backbone) wherein the DEN4 backbone further comprises one attenuating mutation selected from 5-FU mutations 4896, 4995, 6259, 7129, and 7849 and charge-cluster-to-alanine mutations from Table 37. (a) a nucleic acid encoding structural proteins C, prM, and E from dengue serotype 1, dengue serotype 2, dengue serotype 3, or dengue serotype 4; and (b) a nucleic acid comprising remaining coding and non-coding regions of a dengue serotype 4 virus (DEN4 backbone), wherein the DEN4 backbone comprises the Δ30 nucleotide deletion in the 3' untranslated region corresponding to nucleotides 10478-10507 of SEQ ID NO:14 (DEN4Δ30 backbone) wherein the DEN4 backbone further comprises one attenuating mutation selected from 5-FU mutations 4896, 4995, 6259, 7129, and 7849 and charge-cluster-to-alanine mutations from Table 37.
An aqueous composition comprising particles, wherein (a) each particle comprises a complex of at least one double-stranded polyribonucleotide, or a salt or solvate thereof, and at least one polyalkyleneimine, or a salt and/or solvate thereof, wherein (i) the double-stranded polyribonucleotide is polyinosinic-polycytidylic acid [poly(I:C)], wherein at least 60% of the double-stranded polyribonucleotides have at least 850 base pairs, at least 70% of the double-stranded polyribonucleotides have between 400 and 5000 base pairs, and between 20% and 45% of the double-stranded polyribonucleotides have between 400 and 850 base pairs; and (ii) the polyalkyleneimine comprises at least 95% polyethyleneimines, wherein the average molecular weight of the polyalkyleneimine is between 17 and 23 kDa and the polydispersity index is < 1.5, and wherein the ratio of the number of moles of nitrogen of the polyalkyleneimine to the number of moles of phosphorus of the double-stranded polyribonucleotide in the composition is around 3; and (b) the particles have a z-average diameter measured according to ISO 22412:2008 of between 30 nm and 150 nm, and (c) wherein at least 99% of the particles have a diameter distribution below 600 nm. (a) each particle comprises a complex of at least one double-stranded polyribonucleotide, or a salt or solvate thereof, and at least one polyalkyleneimine, or a salt and/or solvate thereof, wherein (i) the double-stranded polyribonucleotide is polyinosinic-polycytidylic acid [poly(I:C)], wherein at least 60% of the double-stranded polyribonucleotides have at least 850 base pairs, at least 70% of the double-stranded polyribonucleotides have between 400 and 5000 base pairs, and between 20% and 45% of the double-stranded polyribonucleotides have between 400 and 850 base pairs; and (ii) the polyalkyleneimine comprises at least 95% polyethyleneimines, wherein the average molecular weight of the polyalkyleneimine is between 17 and 23 kDa and the polydispersity index is < 1.5, and wherein the ratio of the number of moles of nitrogen of the polyalkyleneimine to the number of moles of phosphorus of the double-stranded polyribonucleotide in the composition is around 3; and (i) the double-stranded polyribonucleotide is polyinosinic-polycytidylic acid [poly(I:C)], wherein at least 60% of the double-stranded polyribonucleotides have at least 850 base pairs, at least 70% of the double-stranded polyribonucleotides have between 400 and 5000 base pairs, and between 20% and 45% of the double-stranded polyribonucleotides have between 400 and 850 base pairs; and (ii) the polyalkyleneimine comprises at least 95% polyethyleneimines, wherein the average molecular weight of the polyalkyleneimine is between 17 and 23 kDa and the polydispersity index is < 1.5, and wherein the ratio of the number of moles of nitrogen of the polyalkyleneimine to the number of moles of phosphorus of the double-stranded polyribonucleotide in the composition is around 3; and (b) the particles have a z-average diameter measured according to ISO 22412:2008 of between 30 nm and 150 nm, and (c) wherein at least 99% of the particles have a diameter distribution below 600 nm.
A communications system, comprising: radio equipment (720, 740); and a directional antenna (220, 300) coupled to the radio equipment (720, 740) via communications circuitry, wherein the directional antenna (220, 300) includes: a Luneburg lens having a spherical shape; and a curved substrate that conforms to the spherical shape of the Luneburg lens, the curved substrate having a feed network of signal conveyors affixed to a front side and a ground plane back side, wherein the feed network of signal conveyors is a feed network of patch antennas printed on the front side of the curved substrate and the signal conveyors are aligned with the Luneburg lens to communicate radio frequency signals within a sector, wherein the Luneburg lens has a diameter of a first size and the communications system includes at least one more directional antenna that includes a Luneburg lens with a diameter of a second size that differs from the first size. radio equipment (720, 740); and a directional antenna (220, 300) coupled to the radio equipment (720, 740) via communications circuitry, wherein the directional antenna (220, 300) includes: a Luneburg lens having a spherical shape; and a curved substrate that conforms to the spherical shape of the Luneburg lens, the curved substrate having a feed network of signal conveyors affixed to a front side and a ground plane back side, wherein the feed network of signal conveyors is a feed network of patch antennas printed on the front side of the curved substrate and the signal conveyors are aligned with the Luneburg lens to communicate radio frequency signals within a sector, a Luneburg lens having a spherical shape; and a curved substrate that conforms to the spherical shape of the Luneburg lens, the curved substrate having a feed network of signal conveyors affixed to a front side and a ground plane back side, wherein the feed network of signal conveyors is a feed network of patch antennas printed on the front side of the curved substrate and the signal conveyors are aligned with the Luneburg lens to communicate radio frequency signals within a sector,