mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling a first bulk wafer (12, 22) and a second bulk wafer (14, 24), of which at least the first bulk wafer, known as chamfered wafer, has at least a chamfered edge (7, 17) comprising: - covering the first wafer with a protective layer, - a trimming stage of at least one part of the chamfered edge of the first wafer (12, 22) over a width Ld, measured on a plane parallel to that of the first wafer, at least equal to the width L of the chamfered edge, measured on the same plane and/or at least equal to the width of the zone of this first wafer which cannot, without trimming, be bonded with the second wafer, said trimming starting from said face of the first wafer to be assembled with the second wafer; - eliminating the protective layer after trimming of the first wafer, - then, a bonding stage of the first wafer, trimmed, and of the second wafer. - covering the first wafer with a protective layer, - a trimming stage of at least one part of the chamfered edge of the first wafer (12, 22) over a width Ld, measured on a plane parallel to that of the first wafer, at least equal to the width L of the chamfered edge, measured on the same plane and/or at least equal to the width of the zone of this first wafer which cannot, without trimming, be bonded with the second wafer, said trimming starting from said face of the first wafer to be assembled with the second wafer; - eliminating the protective layer after trimming of the first wafer, - then, a bonding stage of the first wafer, trimmed, and of the second wafer.
An apparatus for cleaning articles comprising, - a first compressor stage for processing of fluid, - a second compressor stage for further processing of the fluid, and - a cooling unit arranged between the first and second compressor stage for cooling the fluid being used as a solvent and a second cooling unit before the storage device, characterised in that the cooling unit comprises a device (1, 7, 8) containing cooled fluid, and a tube section for conveying the fluid from the first compressor stage to the second compressor stage, arranged such that the fluid in the tube section is fluidly associated with the fluid in the device (1, 7, 8) and cooled by the cooled fluid in the device (1, 7, 8). - a first compressor stage for processing of fluid, - a second compressor stage for further processing of the fluid, and - a cooling unit arranged between the first and second compressor stage for cooling the fluid being used as a solvent and a second cooling unit before the storage device,
A flat pattern configured to be formed into a dimensional article of footwear, the flat pattern having an integrated collar liner and comprising: a flat upper having a toe end and an opposite heel end (308, 310), a medial side and an opposite lateral side, the flat upper having a top surface and an opposite bottom surface, the top surface intended to form an exterior of the dimensionally formed article of footwear and the bottom surface intended to face an internal cavity of the dimensionally formed article of footwear; the collar liner coupled with the flat upper at an ankle opening, the collar liner having an interior surface and an opposite exterior surface, the exterior surface intended to form an exposed surface of the internal cavity of the dimensionally formed article of footwear and the interior surface intended to face the flat upper bottom surface within the internal cavity of the dimensionally formed article of footwear, wherein the collar liner exterior surface faces the flat upper top surface at an ankle opening coupling location, characterized in that a nested tongue is coupled to the collar liner along a tongue coupling.
A method of displaying a user interface of a portable terminal having a two-sided touch screen where a first touch sensor and a second touch sensor are formed respectively on the front side and the backside of a display unit, the method comprising: displaying (810, 910, 1010, 1110) a user interface including a background screen and at least one contents on the display unit; and changing brightness of the user interface according to a touch event to the portable terminal, wherein, changing brightness of the user interface comprises: increasing brightness of an area at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the first touch sensor; and decreasing brightness of the area (860, 960) at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the second touch sensor, wherein the display unit is made of a transparent material. displaying (810, 910, 1010, 1110) a user interface including a background screen and at least one contents on the display unit; and changing brightness of the user interface according to a touch event to the portable terminal, wherein, changing brightness of the user interface comprises: increasing brightness of an area at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the first touch sensor; and decreasing brightness of the area (860, 960) at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the second touch sensor, wherein the display unit is made of a transparent material. increasing brightness of an area at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the first touch sensor; and decreasing brightness of the area (860, 960) at which the touch event is detected of the user interface to a predetermined brightness level in response to detecting the touch event through the second touch sensor, wherein the display unit is made of a transparent material.
A pharmaceutical composition for oral administration comprising: 4-((1-methylpyrrol-2-yl)-carbonyl)-N-(4-(4-morpholin-1-yl-carbonylpiperidin-1-yl)-phenyl)-1-piperazinecarboxamide, a salt thereof, or a solvate thereof, as an active pharmaceutical ingredient; and at least one acid additive selected from the group consisting of adipic acid, succinic acid, fumaric acid, L-aspartic acid, and L-glutamic acid. 4-((1-methylpyrrol-2-yl)-carbonyl)-N-(4-(4-morpholin-1-yl-carbonylpiperidin-1-yl)-phenyl)-1-piperazinecarboxamide, a salt thereof, or a solvate thereof, as an active pharmaceutical ingredient; and at least one acid additive selected from the group consisting of adipic acid, succinic acid, fumaric acid, L-aspartic acid, and L-glutamic acid.
A curb pump hose which is characterized by being comprised of: (a) a tube layer, wherein the tube layer is comprised of a first nitrile rubber having an acrylonitrile content which is within the range of 28 weight percent to 50 weight percent, and wherein the tube layer is further comprised of a third nitrile rubber which includes at least one fluorothermoplastic adhesion promoting agent; (b) a barrier layer which is situated over the tube layer, wherein the barrier layer is comprised of a fluorothermoplastic; (c) a friction layer which is situated over the barrier layer, wherein the friction layer is comprised of a second nitrile rubber having an acrylonitrile content which is within the range of 28 weight percent to 50 weight percent, and wherein the friction layer is further comprised of the third nitrile rubber which includes at least one fluorothermoplastic adhesion promoting agent; (d) a reinforcing layer which is situated over the friction layer, wherein the reinforcing layer is comprised of braided steel wire, wherein the braided steel wire has a wire pack coverage which is within the range of 30 percent to 60 percent; and (e) a cover layer which is situated over the reinforcing layer, wherein the cover layer is comprised of a chlorinated polyethylene. (a) a tube layer, wherein the tube layer is comprised of a first nitrile rubber having an acrylonitrile content which is within the range of 28 weight percent to 50 weight percent, and wherein the tube layer is further comprised of a third nitrile rubber which includes at least one fluorothermoplastic adhesion promoting agent; (b) a barrier layer which is situated over the tube layer, wherein the barrier layer is comprised of a fluorothermoplastic; (c) a friction layer which is situated over the barrier layer, wherein the friction layer is comprised of a second nitrile rubber having an acrylonitrile content which is within the range of 28 weight percent to 50 weight percent, and wherein the friction layer is further comprised of the third nitrile rubber which includes at least one fluorothermoplastic adhesion promoting agent; (d) a reinforcing layer which is situated over the friction layer, wherein the reinforcing layer is comprised of braided steel wire, wherein the braided steel wire has a wire pack coverage which is within the range of 30 percent to 60 percent; and (e) a cover layer which is situated over the reinforcing layer, wherein the cover layer is comprised of a chlorinated polyethylene.
A light emitting device comprising a polymeric charge transfer layer, wherein the polymeric charge transfer layer is formed from a composition comprising a polymer, said polymer comprising one or more units of, in polymerized form, Structure A, characterized in that Structure A is selected from the following A1) - A8): wherein O is oxygen; and wherein Q is selected from the following: hydrogen, deuterium, a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, a substituted heterohydrocarbyl, a halogen, a cyano, an aryl, a substituted aryl, a heteroaryl, a substituted heteroaryl; and wherein the polymer further comprises one or more polymerized units derived from a cross-linking agent selected from the following 1i) - 8i):
A method in a control unit for selecting a transmission parameter for use by a first wireless communication device, WCD,, the method comprising: a control unit (502, 602, 702) obtaining a propagation value related to a multipath profile of a radio propagation signal that is indicative of a radio link between the first WCD and a second WCD; the control unit obtaining a set of one or more weather values that is indicative of a weather state at or near the first WCD; the control unit determining whether said propagation value satisfies a predetermined propagation condition; the control unit determining whether said weather state satisfies a predetermined weather condition; the control unit performing a first transmission parameter selection procedure in response to determining at least that the propagation value satisfies the predetermined propagation condition and the weather state satisfies the predetermined weather condition; and the control unit performing a second transmission parameter selection procedure, which is different than the first transmission parameter selection procedure, when the propagation value does not satisfy the predetermined propagation condition or the weather state does not satisfy the predetermined weather condition. a control unit (502, 602, 702) obtaining a propagation value related to a multipath profile of a radio propagation signal that is indicative of a radio link between the first WCD and a second WCD; the control unit obtaining a set of one or more weather values that is indicative of a weather state at or near the first WCD; the control unit determining whether said propagation value satisfies a predetermined propagation condition; the control unit determining whether said weather state satisfies a predetermined weather condition; the control unit performing a first transmission parameter selection procedure in response to determining at least that the propagation value satisfies the predetermined propagation condition and the weather state satisfies the predetermined weather condition; and the control unit performing a second transmission parameter selection procedure, which is different than the first transmission parameter selection procedure, when the propagation value does not satisfy the predetermined propagation condition or the weather state does not satisfy the predetermined weather condition.
A plating method comprising: doping a tin (Sn) plating solution with antimony (Sb); and electroplating a component using the antimony-doped tin plating solution, to reduce tin whisker formation wherein doping comprises producing an electrolyte by: dissolving tin sulfate in deionized water; filtering the tin sulfate solution to obtain a clear solution that becomes cloudy upon sitting; stirring into the cloudy solution an amount of sulfuric acid to provide a clear solution; stirring a surfactant into the solution; stirring a formaldehyde solution into the solution; stirring a benzyl alcohol into the solution to obtain a clear, colorless solution; and heating the solution to about 75°C in a water bath; preparing an antimony solution by dissolving an amount of antimony powder in sulfuric acid with heating and stirring; and adding an amount of the antimony solution to the electrolyte being maintained at about 75°C, wherein the antimony-doped tin plating comprises between about 1% and about 3% antimony, the surfactant is a nonionic surfactant, plating is conducted at a temperature comprised between 65°C and 75°C, and the doping reduces tin whisker formation after plating. doping a tin (Sn) plating solution with antimony (Sb); and electroplating a component using the antimony-doped tin plating solution, to reduce tin whisker formation wherein doping comprises producing an electrolyte by: dissolving tin sulfate in deionized water; filtering the tin sulfate solution to obtain a clear solution that becomes cloudy upon sitting; stirring into the cloudy solution an amount of sulfuric acid to provide a clear solution; stirring a surfactant into the solution; stirring a formaldehyde solution into the solution; stirring a benzyl alcohol into the solution to obtain a clear, colorless solution; and heating the solution to about 75°C in a water bath; preparing an antimony solution by dissolving an amount of antimony powder in sulfuric acid with heating and stirring; and adding an amount of the antimony solution to the electrolyte being maintained at about 75°C, dissolving tin sulfate in deionized water; filtering the tin sulfate solution to obtain a clear solution that becomes cloudy upon sitting; stirring into the cloudy solution an amount of sulfuric acid to provide a clear solution; stirring a surfactant into the solution; stirring a formaldehyde solution into the solution; stirring a benzyl alcohol into the solution to obtain a clear, colorless solution; and heating the solution to about 75°C in a water bath; preparing an antimony solution by dissolving an amount of antimony powder in sulfuric acid with heating and stirring; and adding an amount of the antimony solution to the electrolyte being maintained at about 75°C, wherein the antimony-doped tin plating comprises between about 1% and about 3% antimony, the surfactant is a nonionic surfactant, plating is conducted at a temperature comprised between 65°C and 75°C, and the doping reduces tin whisker formation after plating.
A method for characterizing a dielectric layer with a backing material or fluid behind the dielectric layer, wherein the method comprises: measuring a parameter in a first frequency range with a sensor, measuring a parameter in a second frequency range with a sensor, estimating a permittivity in the first frequency range from the measured parameter in the first frequency range, estimating a permittivity in the second frequency range by combining an application based model with the estimated permittivity in the first frequency range, estimating thickness of the dielectric layer from the measured parameter in the second frequency range, wherein the first frequency range is a material characterization frequency range, wherein the material characterization frequency range is the frequency range where the sensor is in non-radiating mode, wherein the non-radiating mode being defined as when reflections from an interface between the sensor and the dielectric layer is dominating the measurements, wherein the second frequency range is a thickness characterization frequency range wherein the thickness characterization frequency range is the frequency range where the sensor is in radiating mode, wherein radiating mode being defined as when reflections from the interface between the dielectric layer and the backing material interfere with reflections from the interface between the sensor and the dielectric layer, wherein the first frequency range is within 1 MHz to 1 GHz, and wherein the second frequency is in the range 1 GHz to 10 GHz. measuring a parameter in a first frequency range with a sensor, measuring a parameter in a second frequency range with a sensor, estimating a permittivity in the first frequency range from the measured parameter in the first frequency range, estimating a permittivity in the second frequency range by combining an application based model with the estimated permittivity in the first frequency range, estimating thickness of the dielectric layer from the measured parameter in the second frequency range, wherein the first frequency range is a material characterization frequency range, wherein the material characterization frequency range is the frequency range where the sensor is in non-radiating mode, wherein the non-radiating mode being defined as when reflections from an interface between the sensor and the dielectric layer is dominating the measurements, wherein the second frequency range is a thickness characterization frequency range wherein the thickness characterization frequency range is the frequency range where the sensor is in radiating mode, wherein radiating mode being defined as when reflections from the interface between the dielectric layer and the backing material interfere with reflections from the interface between the sensor and the dielectric layer, wherein the first frequency range is within 1 MHz to 1 GHz, and wherein the second frequency is in the range 1 GHz to 10 GHz.
A method for obtaining particulate calcium carbonate product comprising the steps of; providing green liquor from a kraft pulping process; slaking calcium oxide to form a milk of lime; reacting the milk of lime with the green liquor to complete a causticization reaction which produces white liquor and unwashed lime mud comprising calcium carbonate; and separating the lime mud from the white liquor, washing the lime mud with water to provide washed lime mud and reacting the washed lime mud with carbon dioxide vapour wherein the calcium oxide is slaked with material selected from water, weak wash generated in the washing of lime mud with water and white liquor from a kraft pulping process.
A thermally curable coating composition for alloy substrates, comprising: curable components, comprising an epoxy resin and a multifunctional (meth)acrylate, latent curing agents, which crosslink with the curable components upon heating, and comprise an isocyanate having at least two NCO groups and an amino resin, a curing promoter, comprising an aromatic phosphate comprising at least one hydroxy group connected with the phosphorous atom, and an organic solvent. curable components, comprising an epoxy resin and a multifunctional (meth)acrylate, latent curing agents, which crosslink with the curable components upon heating, and comprise an isocyanate having at least two NCO groups and an amino resin, a curing promoter, comprising an aromatic phosphate comprising at least one hydroxy group connected with the phosphorous atom, and an organic solvent.
A fastening device for fastening a plastics component to a load-bearing component, comprising (a) a plastics component which can be fastened to the load-bearing component by a screw connection; (b) a rubber-metal buffer which can be arranged as a resilient support between the load-bearing component and the plastics component, further comprising (c) at least one metal tip which is arranged between the rubber-metal buffer and the plastics component, which protrudes from a metal disk (10; 4c) in the direction of the plastics component, and which in the state of the plastics component screwed to the load-bearing component engages at least partially in a surface of the plastics component. (a) a plastics component which can be fastened to the load-bearing component by a screw connection; (b) a rubber-metal buffer which can be arranged as a resilient support between the load-bearing component and the plastics component, further comprising (c) at least one metal tip which is arranged between the rubber-metal buffer and the plastics component, which protrudes from a metal disk (10; 4c) in the direction of the plastics component, and which in the state of the plastics component screwed to the load-bearing component engages at least partially in a surface of the plastics component.
An optical member comprising: a light-transmitting substrate having a surface including an optically effective area and an optically non-effective area, the optically effective area and the optically non-effective area being located adjacent relative to each other; the optically effective area and the optically non-effective area forming an angle of not less than 45 degrees and not more than 90 degrees on the border thereof, wherein the optical member has a light-shielding film arranged in the optically non-effective area of the substrate, and the optically non-effective area of the substrate has a fine rugged structure and the light-shielding film arranged on the fine rugged structure in a boundary area extending along the border of the optically effective area and the optically non-effective area, wherein the fine rugged structure is a sub-wavelength structure; and wherein the optical member is a lens having a concave surface, and wherein the optical member has the fine rugged structure arranged on the optically effective area; characterized in that the fine rugged structure is formed continuously from the optically effective area so as to cross the border of the optically effective area; the optically non-effective area has an area other than the boundary area in which the light-shielding film is arranged and in which no fine rugged structure is arranged; and the optically effective area and the optically non-effective area are located adjacent to each other at the concave surface side of the lens. a light-transmitting substrate having a surface including an optically effective area and an optically non-effective area, the optically effective area and the optically non-effective area being located adjacent relative to each other; the optically effective area and the optically non-effective area forming an angle of not less than 45 degrees and not more than 90 degrees on the border thereof, wherein the optical member has a light-shielding film arranged in the optically non-effective area of the substrate, and the optically non-effective area of the substrate has a fine rugged structure and the light-shielding film arranged on the fine rugged structure in a boundary area extending along the border of the optically effective area and the optically non-effective area, wherein the fine rugged structure is a sub-wavelength structure; and wherein the optical member is a lens having a concave surface, and wherein the optical member has the fine rugged structure arranged on the optically effective area; characterized in that the fine rugged structure is formed continuously from the optically effective area so as to cross the border of the optically effective area; the optically non-effective area has an area other than the boundary area in which the light-shielding film is arranged and in which no fine rugged structure is arranged; and the optically effective area and the optically non-effective area are located adjacent to each other at the concave surface side of the lens.