mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel, the display panel including: a pair of substrates (11a, 11b); a material provided between the substrates (11a, 11b), the material changing its optical characteristics by implication of an electric field; and a color filter provided on one of the substrates and including color portions in blue, green, red, yellow each containing respective pigments in a dispersed manner; and a lighting device, the lighting device including LEDs as a light source, the LEDs exiting light toward the display panel, characterised in that each LED includes: an LED element as a light emission source; and a phosphor that is excited by light from the LED element and emits light, the phosphor including at least a YAG-based phosphor; and in that: each red color portion has a film thickness that is greater than the film thickness of each of the blue color portions and the green color portions; and the pigment densities of the color portions are the same. a display panel, the display panel including: a pair of substrates (11a, 11b); a material provided between the substrates (11a, 11b), the material changing its optical characteristics by implication of an electric field; and a color filter provided on one of the substrates and including color portions in blue, green, red, yellow each containing respective pigments in a dispersed manner; and a pair of substrates (11a, 11b); a material provided between the substrates (11a, 11b), the material changing its optical characteristics by implication of an electric field; and a color filter provided on one of the substrates and including color portions in blue, green, red, yellow each containing respective pigments in a dispersed manner; and a lighting device, the lighting device including LEDs as a light source, the LEDs exiting light toward the display panel, characterised in that each LED includes: an LED element as a light emission source; and a phosphor that is excited by light from the LED element and emits light, the phosphor including at least a YAG-based phosphor; and in that: each red color portion has a film thickness that is greater than the film thickness of each of the blue color portions and the green color portions; and the pigment densities of the color portions are the same. an LED element as a light emission source; and a phosphor that is excited by light from the LED element and emits light, the phosphor including at least a YAG-based phosphor; and in that: each red color portion has a film thickness that is greater than the film thickness of each of the blue color portions and the green color portions; and the pigment densities of the color portions are the same.
A method for monitoring network performance in a wireless communication network comprising multiple cells that communicate with wireless devices, each cell providing coverage in a geographical area and the wireless communication network having a cell coverage plan with a calculated performance, wherein the method comprising: a) retrieving geospatially located measurements from wireless devices, the geospatially located measurements comprising time, geographical position and measurement values; b) connecting each geospatially located measurement to a cell based on the geographical position; c) arranging measurements into at least one cluster per cell and identifying a sub-cluster in a main lobe of a cell, the sub-cluster being a high density cluster that is created during a specific time interval indicating that a change in infrastructure is not needed; d) identifying deviations from the cell coverage plan; and e) initiating actions to reduce the deviations by temporarily providing better coverage for users of the cell during the specific time interval. a) retrieving geospatially located measurements from wireless devices, the geospatially located measurements comprising time, geographical position and measurement values; b) connecting each geospatially located measurement to a cell based on the geographical position; c) arranging measurements into at least one cluster per cell and identifying a sub-cluster in a main lobe of a cell, the sub-cluster being a high density cluster that is created during a specific time interval indicating that a change in infrastructure is not needed; d) identifying deviations from the cell coverage plan; and e) initiating actions to reduce the deviations by temporarily providing better coverage for users of the cell during the specific time interval.
Domestic appliance such as a washing machine, a tumble dryer or washer-dryer, comprising a housing having an inspection cover which is arranged in an opening in a housing wall, and comprising a hinge block, which is arranged on the housing wall and comprises a hinge part and a clamp part, for pivotally mounting the inspection cover, characterised in that the housing wall is bent twice at its lateral edge and thus forms, by means of a lateral bent portion and a rear bent portion, a U-shaped receptacle for the hinge block, and in that the hinge part can be fixed in this receptacle in an interlocking manner in order to hold the inspection cover, and in that the clamp part can be inserted between the hinge part and the rear bent portion and thus fixes the hinge part in the receptacle in an interlocking and force-locking manner.
A method for the manufacture of an exhaust gas converter, comprising: providing a cylindrical metal pipe; providing a cylindrical substrate surrounded in its circumferential direction by a mat mount, the cross-section of the substrate including the mat mount being smaller or equal the cross-section of the metal pipe; disposing the substrate with the mat mount surrounding it inside the metal pipe; and exerting a compression force on the metal pipe, the compression force being directed in a radial direction of the metal pipe for reducing the cross-section of the metal pipe to a desired size; characterized in that in step of exerting a compression force on the metal pipe, regions to which a compression force is applied alternate along the circumferential direction of the metal pipe with regions to which no compression force is applied; and the number of regions where no compression force is applied to the metal pipe exceeds the number of tools used for applying the compression force. providing a cylindrical metal pipe; providing a cylindrical substrate surrounded in its circumferential direction by a mat mount, the cross-section of the substrate including the mat mount being smaller or equal the cross-section of the metal pipe; disposing the substrate with the mat mount surrounding it inside the metal pipe; and exerting a compression force on the metal pipe, the compression force being directed in a radial direction of the metal pipe for reducing the cross-section of the metal pipe to a desired size;
Bath deposition solution for wet-chemical deposition of a metal sulfide layer, - wherein the bath deposition solution includes: a metal salt, an organosulfide, a chelating complexing agent forming a chelate complex with metal ions of the metal salt, and ammonium hydroxide in distilled or deionized water, - wherein the metal salt is a Zn salt and/or In salt, - wherein the organosulfide is thioacetamide and the chelating complexing agent is nitrilotriacetic acid or iminodiacetic acid or a metalt salt thereof. - wherein the bath deposition solution includes: a metal salt, an organosulfide, a chelating complexing agent forming a chelate complex with metal ions of the metal salt, and ammonium hydroxide in distilled or deionized water, - wherein the metal salt is a Zn salt and/or In salt, - wherein the organosulfide is thioacetamide and the chelating complexing agent is nitrilotriacetic acid or iminodiacetic acid or a metalt salt thereof.
A solid fuel skewer suspension burning system for a kiln, the solid fuel skewer suspension burning system comprising: a skewer rod having a first end and a length that extends longitudinally; and a solid fuel loading system having: a fuel centering and staging area that is adapted to receive fuel from a conveyor system; a fuel loading area that is adapted to receive solid fuel from the fuel centering and staging area, wherein fuel is loaded onto the first end of the skewer rod at the fuel loading area; a first clamp that holds the skewer rod and defines a first position between the first clamp and a free end of the skewer rod; an airlock having a first airlock gate and a second airlock gate, the airlock spaced from the first clamp; and a plow that is adapted to reciprocate substantially longitudinally in cooperation with the skewer rod to advance fuel along at least a portion of the length of the skewer rod. a skewer rod having a first end and a length that extends longitudinally; and a solid fuel loading system having: a fuel centering and staging area that is adapted to receive fuel from a conveyor system; a fuel loading area that is adapted to receive solid fuel from the fuel centering and staging area, wherein fuel is loaded onto the first end of the skewer rod at the fuel loading area; a first clamp that holds the skewer rod and defines a first position between the first clamp and a free end of the skewer rod; an airlock having a first airlock gate and a second airlock gate, the airlock spaced from the first clamp; and a plow that is adapted to reciprocate substantially longitudinally in cooperation with the skewer rod to advance fuel along at least a portion of the length of the skewer rod.
A compound which is an agonist of at least one receptor selected from S1PR1, S1PR2, S1PR3, S1PR4 and S1PR5 receptors for use in a method for treating an HIV infection in humans, characterized in that said compound is FTY720 or FTY720-P.
MicroRNA MIR2911 for use in treating Ebola virus by regulating expression of a protein gene of Ebola virus; and/or by inhibiting growth of Ebola virus, wherein the microRNA MIR2911 is MIR2911 of SEQ ID NO:1.
A tiacumicin compound, a stereo-isomer thereof, a polymorph thereof or a pharmaceutically acceptable solvate thereof for use in the oral treatment of Clostridium difficile infections or Clostridium difficile associated diarrhea or disease (CDAD) in a patient according to a dosage regimen selected from the group consisting of: i. Administering 200 mg of the tiacumicin compound BID for 5 days followed by 5 days of rest and then 200 mg once daily for a further 10 days and ii. Administering 200 mg of the tiacumicin compound BID for 5 days followed by a single 200 mg every other day for 20 days. i. Administering 200 mg of the tiacumicin compound BID for 5 days followed by 5 days of rest and then 200 mg once daily for a further 10 days and ii. Administering 200 mg of the tiacumicin compound BID for 5 days followed by a single 200 mg every other day for 20 days.
A lip cosmetic comprising the following components (a) to (c): (a) 4.5 to 35 mass % of isostearyl glyceryl ether; (b) 30 to 80 mass % of one or more kinds of methyl phenyl silicones that do not separate when mixed with (a) and decamethylcyclopentasiloxane at 90°C and separate when mixed with (a) and decamethylcyclopentasiloxane at 25°C, wherein the methyl phenyl silicone(s) comprises trimethyl pentaphenyl trisiloxane and optionally one or more selected from diphenyl dimethicone, diphenylsiloxy phenyl trimethicone and phenyl trimethicone; (c) 4 to 10 mass % of a wax. (a) 4.5 to 35 mass % of isostearyl glyceryl ether; (b) 30 to 80 mass % of one or more kinds of methyl phenyl silicones that do not separate when mixed with (a) and decamethylcyclopentasiloxane at 90°C and separate when mixed with (a) and decamethylcyclopentasiloxane at 25°C, wherein the methyl phenyl silicone(s) comprises trimethyl pentaphenyl trisiloxane and optionally one or more selected from diphenyl dimethicone, diphenylsiloxy phenyl trimethicone and phenyl trimethicone; (c) 4 to 10 mass % of a wax.
A power converting transformer, comprising: a substantially rectangular flat I-core extending along an x-y plane in an xyz orthogonal coordinate system; and an E-core including a substantially rectangular flat base portion extending along the x-y plane, a central leg portion installed upright at a center of the base portion to extend in a z-direction, and a pair of outer leg portions installed upright in opposite end portions of the base portion in a y-direction to extend in the z-direction, the I-core placed on the outer leg portions, wherein the I-core includes a pair of fixing grooves provided at centers on opposite side surfaces of the I-core in the y-direction, the fixing grooves extending through the I-core in the z-direction, the E-core includes a pair of fixing recess portions provided at x-direction centers of the y-direction opposite end portions of the base portion on a surface opposite from a surface of the base portion facing the I-core, the I-core and the E-core are pressed and fixed to each other by a fixing spring wrapped around the I-core and the E-core through the fixing grooves and the fixing recess portions, and an x-direction length of the E-core is shorter than an x-direction length of the I-core, a y-direction length of the E-core being shorter than or equal to a y-direction distance between the fixing grooves of the I-core. a substantially rectangular flat I-core extending along an x-y plane in an xyz orthogonal coordinate system; and an E-core including a substantially rectangular flat base portion extending along the x-y plane, a central leg portion installed upright at a center of the base portion to extend in a z-direction, and a pair of outer leg portions installed upright in opposite end portions of the base portion in a y-direction to extend in the z-direction, the I-core placed on the outer leg portions, wherein the I-core includes a pair of fixing grooves provided at centers on opposite side surfaces of the I-core in the y-direction, the fixing grooves extending through the I-core in the z-direction, the E-core includes a pair of fixing recess portions provided at x-direction centers of the y-direction opposite end portions of the base portion on a surface opposite from a surface of the base portion facing the I-core, the I-core and the E-core are pressed and fixed to each other by a fixing spring wrapped around the I-core and the E-core through the fixing grooves and the fixing recess portions, and an x-direction length of the E-core is shorter than an x-direction length of the I-core, a y-direction length of the E-core being shorter than or equal to a y-direction distance between the fixing grooves of the I-core.
A method comprising: printing a calibration pattern with a wide array printhead having a plurality of printhead dies; scanning the calibration pattern with a scanbar having a width less than a width of the wide array printhead by indexing the scanbar to a plurality of selected positions across a width of the calibration pattern and providing a scanned calibration image at each selected position, the calibration images together providing a scan of the full width of the calibration pattern; and measuring alignment between successive printhead dies based on the calibration images, characterised in that: the calibration pattern having alignment regions, the scanbar having a plurality of sensor chips with gaps (g) between successive sensor chips, scanning the calibration pattern including: selecting the selected positions so that each alignment region is scanned at least once at a non-chip gap location of the scanbar. printing a calibration pattern with a wide array printhead having a plurality of printhead dies; scanning the calibration pattern with a scanbar having a width less than a width of the wide array printhead by indexing the scanbar to a plurality of selected positions across a width of the calibration pattern and providing a scanned calibration image at each selected position, the calibration images together providing a scan of the full width of the calibration pattern; and measuring alignment between successive printhead dies based on the calibration images, characterised in that: the calibration pattern having alignment regions, the scanbar having a plurality of sensor chips with gaps (g) between successive sensor chips, scanning the calibration pattern including: selecting the selected positions so that each alignment region is scanned at least once at a non-chip gap location of the scanbar.
A crystal form B of Compound I (a tetrahydrothienopyridine compound), characterized in that the crystal form B uses Cu-Kα radiation, and X-ray powder diffraction expressed at a 2θ angle has characteristic peaks at 11.21±0.2°, 12.61±0.2°, 14.69±0.2°, 16.14±0.2°, 17.81 ±0.2°, 20.22±0.2°, and 22.10±0.2°;
Procedure for managing the energy of a field device used in process engineering with a first module and at least a second module, wherein the field device is supplied with energy by a two-wire bus, wherein the first module at least temporarily consumes more energy that the two-wire bus delivers continuously, and an energy storage unit powered by the two-wire bus is assigned to the first module, wherein the second module is supplied continuously with energy by the two-wire bus characterized in that the first module comprises a sensor element designed to capture a measured variable, wherein the sensor element forwards values to a wireless module, wherein the second module comprises the wireless module for the wireless transmission of values to a higher-level unit, and wherein the operation of the first and second module (M, BT) is controlled in such a way that the second module has priority over the first module and the first module may not be operational, at least temporarily. wherein the field device is supplied with energy by a two-wire bus, wherein the first module at least temporarily consumes more energy that the two-wire bus delivers continuously, and an energy storage unit powered by the two-wire bus is assigned to the first module, wherein the second module is supplied continuously with energy by the two-wire bus characterized in that the first module comprises a sensor element designed to capture a measured variable, wherein the sensor element forwards values to a wireless module, wherein the second module comprises the wireless module for the wireless transmission of values to a higher-level unit, and wherein the operation of the first and second module (M, BT) is controlled in such a way that the second module has priority over the first module and the first module may not be operational, at least temporarily.
An assembly for a turbomachine turbine, comprising a housing extending circumferentially about an axis X, sectors intended to form a ring capable of delimiting a gas flow path, each sector comprising a first side and a second side extending radially and circumferentially about the said axis X and spaced axially from each other, each side (17, 18) of the sector comprising at least one radial bearing surface capable of cooperating with radial bearing means (12, 13, 14) of the housing, at least one of the sides (17, 18) comprising means for the circumferential positioning of the sector with respect to the housing characterised in that each radial bearing surface is cylindrical of axis X and is capable of bearing on a complementary cylindrical surface of axis X, integral with the housing, and in that the first side comprises first and second oblong holes (20, 21) extending circumferentially and spaced circumferentially from each other, the second side comprising a third oblong hole extending circumferentially and a fourth oblong hole extending radially, the third and fourth oblong holes (22, 23) being spaced circumferentially from each other, first, second, third and fourth support pins (12, 13, 14, 15) integral with the housing being engaged respectively in the first, second, third and fourth oblong holes (20, 21, 22, 23) of the sector, the first, second and third pins (12, 13, 14) being capable of coming to bear radially on the edges of the first, second and third holes (20, 21, 22), at the level of cylindrical surfaces (16b, 25b) of axis X.
A polymer blend comprising: 5% to 95% by weight of at least one flexible biodegradable polymer having a glass transition temperature less than 0°C, 95% to 5% by weight of at least one rigid biodegradable polymer having a glass transition temperature greater than 10°C, and 0.25 to 10 weight% of at least one compatibilizer, said percentages being based on the total weight of the polymer blend; wherein said polymer blend has a higher zero shear melt viscosity than polymers and separately; wherein the weight percentages are based on the total weight percentages of the polymer blend equaling 100 weight%; wherein said compatibilizer comprises a polyacrylate and said rigid biodegradable polymer is selected from the group consisting of polyesteramides; modified polyethylene terephthalate; biopolymers based on polylactic acid; polyalkylene carbonates; polyhydroxyalkanoates; polyhydroxybutyrates; polyhydroxyvalerates; and polyhydroxybutyrate-hydroxyvalerate copolymers; and said polymer is selected from the group consisting of aliphatic-aromatic polyesters and succinate-based aliphatic polymers. 5% to 95% by weight of at least one flexible biodegradable polymer having a glass transition temperature less than 0°C, 95% to 5% by weight of at least one rigid biodegradable polymer having a glass transition temperature greater than 10°C, and 0.25 to 10 weight% of at least one compatibilizer, said percentages being based on the total weight of the polymer blend;