mhurhangee/ep-ind-claims huggingface dataset:
Stator assembly for a gas turbine comprising: a stator ring, which extends about a longitudinal axis and comprises an outer edge provided with an annular groove; the annular groove defining a leading wall and a trailing wall; the leading wall being provided with an annular leading radial face and with an annular leading axial face; a plurality of stator vanes radially arranged and coupled alongside one another to the outer edge of the stator ring so as to close the annular grove and define an annular cooling channel; each stator vane comprises an airfoil, an outer shroud and an inner shroud coupled to the stator ring; the inner shroud comprising a platform, a leading flange and a trailing flange extending radially inward from the platform; the leading flange being coupled to the leading wall and the trailing flange being coupled to the trailing wall; the leading flange being coupled to the leading wall so as to leave a primary radial gap between the leading wall and the platform and define a leading surface of the leading flange; the platform having a leading border and a trailing border, both extending circumferentially; the leading border comprising at least one first surface facing the primary radial gap; the first surface being curved; the stator assembly being characterized in that the leading flange is provided on the leading surface with at least one primary cooling hole in fluid communication with the annular cooling channel. a stator ring, which extends about a longitudinal axis and comprises an outer edge provided with an annular groove; the annular groove defining a leading wall and a trailing wall; the leading wall being provided with an annular leading radial face and with an annular leading axial face; a plurality of stator vanes radially arranged and coupled alongside one another to the outer edge of the stator ring so as to close the annular grove and define an annular cooling channel; each stator vane comprises an airfoil, an outer shroud and an inner shroud coupled to the stator ring; the inner shroud comprising a platform, a leading flange and a trailing flange extending radially inward from the platform; the leading flange being coupled to the leading wall and the trailing flange being coupled to the trailing wall; the leading flange being coupled to the leading wall so as to leave a primary radial gap between the leading wall and the platform and define a leading surface of the leading flange; the platform having a leading border and a trailing border, both extending circumferentially; the leading border comprising at least one first surface facing the primary radial gap; the first surface being curved; the stator assembly being characterized in that the leading flange is provided on the leading surface with at least one primary cooling hole in fluid communication with the annular cooling channel.
A hermetic compressor comprising a casing, a stator located in the casing, having a stator stack composed of laminations and one or more than one winding composed of conducting wires wound on the slots on the stator stack, more than one winding head forming the portions of the windings extending towards outside from the opposite faces of the stator stack, a compressor block placed on the upper surface of the stator stack and more than one supporting leg seating by extending from the compressor block towards the upper surface of the stator stack and carrying the compressor block on the stator stack, characterized by an insulating jacket having a body in flat sheet form covering the lower surface of the compressor block facing the winding head and having more than one sleeve extending to the upper surface of the stator stack vertical to the body from the edges thereof and covering the supporting legs which are seated therein by surrounding them all around, produced from plastic material and mounted to the compressor block.
An apparatus for supplying a medical instrument having an electrode for the treatment of biological tissue in contact with an aqueous liquid due to the action of a plasma, wherein the apparatus comprises a generator for the output of a high-frequency ac voltage, in which case the generator is connected to an outlet that can be connected to the instrument, a power supply that is connected to the generator in order to supply said power supply with an operating voltage (U b), a control device for controlling the generator and/or the power supply, with a measuring device for determining the electrical resistance (R min) of the instrument connected to the output, wherein the control device is configured to specify, at least for a time period (t ZV), the operating voltage (U b) and/or the power to be output to the instrument and/or the maximum current (i) deliverable to the instrument consistent with the measured resistance (R min) and to control the power supply and/or the generator accordingly, characterized in that the control device is set up to adapt the ignition process to different instruments with different electrode shapes on the basis of the measured minimum resistance (R min) at the electrode immersed in the liquid but not ignited in each case. a power supply that is connected to the generator in order to supply said power supply with an operating voltage (U b), a control device for controlling the generator and/or the power supply, with a measuring device for determining the electrical resistance (R min) of the instrument connected to the output, wherein the control device is configured to specify, at least for a time period (t ZV), the operating voltage (U b) and/or the power to be output to the instrument and/or the maximum current (i) deliverable to the instrument consistent with the measured resistance (R min) and to control the power supply and/or the generator accordingly, characterized in that the control device is set up to adapt the ignition process to different instruments with different electrode shapes on the basis of the measured minimum resistance (R min) at the electrode immersed in the liquid but not ignited in each case.
A method for manufacturing a semiconductor apparatus comprising at least: a transferring step of transferring a film-like wafer mold material onto a wafer having semiconductor devices on a surface thereof, wherein the wafer mold material has a resin layer containing a filler and at least any one of an annular shape silicone resin having an epoxy group, a silicone resin having an epoxy group which is obtained by hydrosilylation of organohydrogenpolysiloxane and polysiloxane containing an alkenyl group, and a polyimide silicone resin, the resin layer is formed on a support film, a protective film is provided on the other side of the resin layer, the wafer mold material is formed into a film-like shape, and the filler content included in the resin layer is 1 to 97% by mass assuming that a total mass of the resin layer is 100% by mass; removing the protective film before the transferring step and removing the support film after the transferring step; a heating step of heating the transferred wafer mold material and sealing the semiconductor devices; and a piece forming step of cutting the wafer together with the wafer mold material into each piece, the wafer having semiconductor devices on the surface thereof having the heated wafer mold material. a transferring step of transferring a film-like wafer mold material onto a wafer having semiconductor devices on a surface thereof, wherein the wafer mold material has a resin layer containing a filler and at least any one of an annular shape silicone resin having an epoxy group, a silicone resin having an epoxy group which is obtained by hydrosilylation of organohydrogenpolysiloxane and polysiloxane containing an alkenyl group, and a polyimide silicone resin, the resin layer is formed on a support film, a protective film is provided on the other side of the resin layer, the wafer mold material is formed into a film-like shape, and the filler content included in the resin layer is 1 to 97% by mass assuming that a total mass of the resin layer is 100% by mass; removing the protective film before the transferring step and removing the support film after the transferring step; a heating step of heating the transferred wafer mold material and sealing the semiconductor devices; and a piece forming step of cutting the wafer together with the wafer mold material into each piece, the wafer having semiconductor devices on the surface thereof having the heated wafer mold material.
A process for the preparation of Ivacaftor of Formula I or a pharmaceutically acceptable salt thereof: comprising: a1) reacting a compound of Formula VI with dimethyl formamide - dimethyl amine complex to obtain a compound of Formula VII, wherein 'X' represents halo and 'R 1 ' represents either hydrogen or a suitable protecting group; b1) reacting the compound of Formula VII with a source of ammonia to obtain a compound of Formula VIII, and c1) cyclizing the compound of Formula VIII to obtain Ivacaftor, when R 1 is hydrogen, or to obtain a compound of Formula IX, when R 1 is a protecting group and deprotecting the Formula IX in presence of a suitable deprotecting agent to obtain Ivacaftor. a1) reacting a compound of Formula VI with dimethyl formamide - dimethyl amine complex to obtain a compound of Formula VII, wherein 'X' represents halo and 'R 1 ' represents either hydrogen or a suitable protecting group; b1) reacting the compound of Formula VII with a source of ammonia to obtain a compound of Formula VIII, and c1) cyclizing the compound of Formula VIII to obtain Ivacaftor, when R 1 is hydrogen, or to obtain a compound of Formula IX, when R 1 is a protecting group and deprotecting the Formula IX in presence of a suitable deprotecting agent to obtain Ivacaftor.
A method, by a device, comprising: determining, by a processor, predicted emotional events, wherein the predicted emotional events are associated with an emotional response by a subject; wherein determining the predicted emotional events includes: identifying emotional images; identifying prior emotional events associated with the emotional images; and determining the predicted emotional events based on the prior emotional events; forming, by the processor, a timeline based on the predicted emotional events, wherein the timeline includes one or more times associated with the predicted emotional events; and causing, by the processor, image data associated with the subject to be acquired based on the timeline by automatically activating an imaging device during one or more times associated with the predicted emotional events and capturing the image data associated with the subject with the imaging device during the one or more times associated with the predicted emotional events. determining, by a processor, predicted emotional events, wherein the predicted emotional events are associated with an emotional response by a subject; wherein determining the predicted emotional events includes: identifying emotional images; identifying prior emotional events associated with the emotional images; and determining the predicted emotional events based on the prior emotional events; forming, by the processor, a timeline based on the predicted emotional events, wherein the timeline includes one or more times associated with the predicted emotional events; and causing, by the processor, image data associated with the subject to be acquired based on the timeline by automatically activating an imaging device during one or more times associated with the predicted emotional events and capturing the image data associated with the subject with the imaging device during the one or more times associated with the predicted emotional events.
A hydraulic-setting composition for manufacturing an autoclave cured fibre-reinforced building board, comprising as components: (a) a cementitious binder, (b) silica, (c) reinforcing cellulose fibres, said composition further comprising the additional components in % with respect to the total weight of the composition at dry state: (d) 8-12% of mica, (e) 4-8% of wollastonite, and (f) 2 - 6 wt % of at least one aluminium compound,selected from the group consisting of aluminium hydroxide, bauxite or boehmite, and their mixtures, capable to release Al 3+ in autoclave curing conditions, said amount being such that the dry composition comprises 0,02-2,2% of Al 3+ with respect to the total weight of the composition at dry state, as well as (g) optionally other additives, the sum of amounts of components (a) to (g) being equal to 100 weight %. (a) a cementitious binder, (b) silica, (c) reinforcing cellulose fibres, said composition further comprising the additional components in % with respect to the total weight of the composition at dry state: (d) 8-12% of mica, (e) 4-8% of wollastonite, and (f) 2 - 6 wt % of at least one aluminium compound,selected from the group consisting of aluminium hydroxide, bauxite or boehmite, and their mixtures, capable to release Al 3+ in autoclave curing conditions, said amount being such that the dry composition comprises 0,02-2,2% of Al 3+ with respect to the total weight of the composition at dry state, as well as (g) optionally other additives, the sum of amounts of components (a) to (g) being equal to 100 weight %.
A method of making a metal reinforcing member (4, 6) for mounting on the leading edge or the trailing edge of a composite blade of a turbine engine, the method comprising the steps consisting in: · shaping two metal sheets to approximate the final shape of the reinforcing member (4, 6) that is to be made; · positioning the two sheets on either side of a core reproducing the inside shapes of the suction side and of the pressure side of the reinforcing member (4, 6; · assembling the two sheets together around the core in leaktight manner and in a vacuum; · conforming the sheets onto the core by hot isostatic compression; and · cutting the sheets to separate the reinforcing member (4, 6) and release the core, characterized in that it said core includes at least one recess for forming a mold for a spacer for positioning the reinforcing member (4, 6) relative to a leading edge or a trailing edge of the blade. · shaping two metal sheets to approximate the final shape of the reinforcing member (4, 6) that is to be made; · positioning the two sheets on either side of a core reproducing the inside shapes of the suction side and of the pressure side of the reinforcing member (4, 6; · assembling the two sheets together around the core in leaktight manner and in a vacuum; · conforming the sheets onto the core by hot isostatic compression; and · cutting the sheets to separate the reinforcing member (4, 6) and release the core, characterized in that it said core includes at least one recess for forming a mold for a spacer for positioning the reinforcing member (4, 6) relative to a leading edge or a trailing edge of the blade.
A photovoltaic module comprising: a solar cell module including a plurality of solar cells, a first conductive line connected to a first solar cell among the plurality of solar cells, and a second conductive line connected to a second solar cell among the plurality of solar cells; and a junction box attached to a back surface of the solar cell module, wherein the junction box includes a power conversion unit (500a, 500b, 500c) having a capacitor unit located between the first conductive line and the second conductive line, wherein the power conversion unit (500a, 500b, 500c) includes: - an input voltage detector configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage detected by the input voltage detector is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). a solar cell module including a plurality of solar cells, a first conductive line connected to a first solar cell among the plurality of solar cells, and a second conductive line connected to a second solar cell among the plurality of solar cells; and a junction box attached to a back surface of the solar cell module, wherein the junction box includes a power conversion unit (500a, 500b, 500c) having a capacitor unit located between the first conductive line and the second conductive line, wherein the power conversion unit (500a, 500b, 500c) includes: - an input voltage detector configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage detected by the input voltage detector is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). - an input voltage detector configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage detected by the input voltage detector is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage detected by the input voltage detector is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1).
A method performed by a wireless device for performing one or more operations based on available energy, wherein the wireless device is configured to operate in a wireless communications network, and wherein the method comprises: - based on an amount of energy available for operation and based on control information, determining an allocation of the amount of available energy between at least a first energy part and a second energy part, wherein the first energy part of the amount of available energy is to be used in a sensing operation using a sensing operation configuration and the second energy part of the amount of available energy is to be used in a communicating operation using a communicating operation configuration; and - performing (207,210) based on the determined allocation, one or more operations out of: the sensing operation using the first energy part and the sensing operation configuration, and the communicating operation using the second energy part and the communicating operation configuration, characterized in that: the control information comprises information relating to a priority relation between the sensing operation and the communicating operation; performing, in accordance with the priority relation between the sensing operation and the communicating operation, at least one of: the sensing operation using the first energy part and the sensing operation configuration; and the communicating operation using the second energy part and the communicating operation configuration. - based on an amount of energy available for operation and based on control information, determining an allocation of the amount of available energy between at least a first energy part and a second energy part, wherein the first energy part of the amount of available energy is to be used in a sensing operation using a sensing operation configuration and the second energy part of the amount of available energy is to be used in a communicating operation using a communicating operation configuration; and - performing (207,210) based on the determined allocation, one or more operations out of: the sensing operation using the first energy part and the sensing operation configuration, and the communicating operation using the second energy part and the communicating operation configuration, characterized in that: the control information comprises information relating to a priority relation between the sensing operation and the communicating operation; performing, in accordance with the priority relation between the sensing operation and the communicating operation, at least one of: the sensing operation using the first energy part and the sensing operation configuration; and the communicating operation using the second energy part and the communicating operation configuration.
Flexible planar light, in particular for use in a garment, with a light-emission surface arranged on a cover layer, with a reflection layer having a reflection surface which is arranged on the side opposite the cover layer, with at least one scattering layer made of a textile material which is arranged between the cover layer and the reflection layer, with several light sources which are arranged between the reflection layer and the cover layer, with a spacer means which is arranged between the light sources and the reflection layer and ensures a minimum distance between the light sources and the reflection layer, characterised in that each light source has a light-emission side facing the reflection surface, and that the light sources emit light away from the cover layer to the reflection layer such that the light initially passes through the distance defined by the spacer means up to the reflection surface where it is totally reflected, then passes again through the distance defined by the spacer means, then passes through the first scattering layer, travels through the cover layer and emerges at the light-emission surface of the cover layer.
An oil tank or oil container scanning apparatus, said apparatus comprising a sonar head adapted for introduction into the container, characterised in that the sonar head comprises an array of electroacoustic transmitting elements for transmitting a sound or ultrasound signal and an array of electroacoustic receiving elements, said receiving array being mounted at a position orthogonal to the transmitting array, the elements of the arrays having a substantially hemi-spherical form with a height H and diameter D and a thickness of half-wavelength of the transmitted signal and signal processing means for executing vertical and horizontal beamforming on the signals transmitted and received by said elements (12, 13).