mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel with a light emitting area; and an input sensor disposed over the display panel, the input sensor comprising: a first conductive layer; a first insulating layer disposed over the first conductive layer; and a second conductive layer disposed over the first insulating layer and connected to the first conductive layer, the first insulating layer comprising: an organic layer covering the first conductive layer; and an inorganic layer disposed over the organic layer, wherein the organic layer and the inorganic layer comprise a plurality of holes, characterized in that the plurality of holes defines a diffraction grating corresponding to the light emitting area. a display panel with a light emitting area; and an input sensor disposed over the display panel, the input sensor comprising: a first conductive layer; a first insulating layer disposed over the first conductive layer; and a second conductive layer disposed over the first insulating layer and connected to the first conductive layer, the first insulating layer comprising: an organic layer covering the first conductive layer; and an inorganic layer disposed over the organic layer, wherein the organic layer and the inorganic layer comprise a plurality of holes, characterized in that the plurality of holes defines a diffraction grating corresponding to the light emitting area. a first conductive layer; a first insulating layer disposed over the first conductive layer; and a second conductive layer disposed over the first insulating layer and connected to the first conductive layer, the first insulating layer comprising: an organic layer covering the first conductive layer; and an inorganic layer disposed over the organic layer, wherein the organic layer and the inorganic layer comprise a plurality of holes, characterized in that the plurality of holes defines a diffraction grating corresponding to the light emitting area. an organic layer covering the first conductive layer; and an inorganic layer disposed over the organic layer, wherein the organic layer and the inorganic layer comprise a plurality of holes, characterized in that the plurality of holes defines a diffraction grating corresponding to the light emitting area.
A method of making emobolization particles comprising: mixing a PVA polymer and a porogen to produce a PVA mixture; adding a substance to cause crosslinking in the PVA mixture; removing air bubbles from the PVA mixture; and adding the mixture to a reaction medium and stirring the mixture and medium to form crosslinked spherical porous embolization particles; and drying the particles to form dehydrated embolization particles. mixing a PVA polymer and a porogen to produce a PVA mixture; adding a substance to cause crosslinking in the PVA mixture; removing air bubbles from the PVA mixture; and adding the mixture to a reaction medium and stirring the mixture and medium to form crosslinked spherical porous embolization particles; and drying the particles to form dehydrated embolization particles.
An X-ray energy spectrum measurement method comprising: causing an X-ray generated from an X-ray source to pass through an attenuation material (40; 41) whose thickness changes stepwise or continuously; moving the attenuation material (40; 41) by use of a movement mechanism for changing the thickness of the attenuation material (40; 41) through which the X-ray generated from the X-ray source passes; detecting the X-ray passed through the attenuation material (40; 41); calculating an attenuation characteristic curve of the detected X-ray; calculating an X-ray energy spectrum, from the attenuation characteristic curve of the X-ray, in accordance with a Bayesian estimation equation with use of at least a normalized response function and modified efficiency matrix; normalizing the modified efficiency matrix; dividing the calculated X-ray energy spectrum by the normalized modified efficiency matrix; and thereby estimating the X-ray energy spectrum of the X-ray generated by the X-ray source. causing an X-ray generated from an X-ray source to pass through an attenuation material (40; 41) whose thickness changes stepwise or continuously; moving the attenuation material (40; 41) by use of a movement mechanism for changing the thickness of the attenuation material (40; 41) through which the X-ray generated from the X-ray source passes; detecting the X-ray passed through the attenuation material (40; 41); calculating an attenuation characteristic curve of the detected X-ray; calculating an X-ray energy spectrum, from the attenuation characteristic curve of the X-ray, in accordance with a Bayesian estimation equation with use of at least a normalized response function and modified efficiency matrix; normalizing the modified efficiency matrix; dividing the calculated X-ray energy spectrum by the normalized modified efficiency matrix; and thereby estimating the X-ray energy spectrum of the X-ray generated by the X-ray source.
A method performed at an electronic device (200, 210) with a touch-sensitive surface (203, 212), a processor, and memory storing one or more applications for execution by the processor, the method comprising: detecting (400, 404, 500, 504) over a period of time a continuous touch on the touch-sensitive surface that starts within a view; the method being characterised in that it further comprises: sending (402, 408, 502, 514) to a software element associated with the view multiple touch events corresponding to the touch, each touch event describing a state of the touch at a respective time, wherein: each of the multiple touch events comprises a data structure including a phase field having phase value that describes the phase of the touch at the respective time; and in one of the touch events, the phase value indicates that the touch has been cancelled, by the device. detecting (400, 404, 500, 504) over a period of time a continuous touch on the touch-sensitive surface that starts within a view; the method being characterised in that it further comprises: sending (402, 408, 502, 514) to a software element associated with the view multiple touch events corresponding to the touch, each touch event describing a state of the touch at a respective time, wherein: each of the multiple touch events comprises a data structure including a phase field having phase value that describes the phase of the touch at the respective time; and in one of the touch events, the phase value indicates that the touch has been cancelled, by the device. sending (402, 408, 502, 514) to a software element associated with the view multiple touch events corresponding to the touch, each touch event describing a state of the touch at a respective time, wherein: each of the multiple touch events comprises a data structure including a phase field having phase value that describes the phase of the touch at the respective time; and in one of the touch events, the phase value indicates that the touch has been cancelled, by the device. each of the multiple touch events comprises a data structure including a phase field having phase value that describes the phase of the touch at the respective time; and in one of the touch events, the phase value indicates that the touch has been cancelled, by the device.
A voltage measuring instrument (100, 140), comprising: an analog-to-digital converter operable to generate a digital output signal indicative of the amplitude of a signal received by the analog-to-digital converter; an RMS circuit structured to generate an RMS output signal indicative of the RMS amplitude of a signal received by the RMS circuit; a capacitor; a display structured to display a value corresponding to a digital input signal, the digital input signal being based on the digital output signal received from the analog-to-digital converter; a switching circuit (26, 36, 42, 54) operable in an AC mode or an automatic mode, the switching circuit being operable in the AC mode to couple an input terminal to the RMS circuit through the capacitor and to couple the RMS output signal from the RMS circuit to the analog-to-digital converter, and being operable in the automatic mode to couple the input terminal to the RMS circuit without coupling the input terminal through the capacitor and to couple the RMS output signal from the RMS circuit to the analog-to-digital converter; and a control unit structured to control the operation of the switching circuit. an analog-to-digital converter operable to generate a digital output signal indicative of the amplitude of a signal received by the analog-to-digital converter; an RMS circuit structured to generate an RMS output signal indicative of the RMS amplitude of a signal received by the RMS circuit; a capacitor; a display structured to display a value corresponding to a digital input signal, the digital input signal being based on the digital output signal received from the analog-to-digital converter; a switching circuit (26, 36, 42, 54) operable in an AC mode or an automatic mode, the switching circuit being operable in the AC mode to couple an input terminal to the RMS circuit through the capacitor and to couple the RMS output signal from the RMS circuit to the analog-to-digital converter, and being operable in the automatic mode to couple the input terminal to the RMS circuit without coupling the input terminal through the capacitor and to couple the RMS output signal from the RMS circuit to the analog-to-digital converter; and a control unit structured to control the operation of the switching circuit.
Valve arrangement (1, 2) for a mobile working machine, having a control valve and a regeneration valve; wherein a port for realizable regeneration and a further port of a consumer (8; 108) are able to be provided with a supply via the control valve, wherein the regeneration valve is provided with only two switching positions, pressure medium being able to be discharged into a tank from the port for realizable regeneration via said regeneration valve, and wherein the regeneration valve is open above a predefined pressure difference between the ports (C1, C2) and is otherwise closed, and wherein a control slide of the control valve has a common regeneration and working position (a), characterized in that the regeneration valve is in the form of a valve which is separated from the control valve and which has a separate housing, wherein the housing of the regeneration valve is connected to a housing of the control valve via pressure medium lines.
Passenger conveyor device, in particular escalator or moving walkway, having conveyor elements which are connected to form an encircling belt and having a drive for the conveyor elements, wherein the drive comprises at least a motor, a transmission and a drive shaft which is operatively connected to the motor via the transmission, and wherein the conveyor elements which are connected to form an encircling belt are guided over the drive shaft and can be moved by means of the drive shaft, having a bearer in which the conveyor elements which are connected to form an encircling belt are arranged in such a manner that they can be guided, wherein the drive is attached to a frame, wherein the frame is attached to the bearer, and characterized in that the bearer, at the end to which the frame is attached, comprises an extension which extends over a length of the drive in a conveying direction.
A system for layered texture compression, comprising: a texture cache used by a graphics processing unit for texture mapping and containing a texture compressed in an index-based compression format, wherein textures are described according to base-color information and color-index information; a system memory for containing the texture compressed in an intermediate compression format that is compressed on top of the index-based compression format, wherein said intermediate compression format compresses the base-color information separately from the color-index information; a peripheral storage device for containing the texture compressed in a storage compression format that is compressed on top of the intermediate compression format; and wherein the graphics processing unit is configured to process the texture in the index-based compression format. a texture cache used by a graphics processing unit for texture mapping and containing a texture compressed in an index-based compression format, wherein textures are described according to base-color information and color-index information; a system memory for containing the texture compressed in an intermediate compression format that is compressed on top of the index-based compression format, wherein said intermediate compression format compresses the base-color information separately from the color-index information; a peripheral storage device for containing the texture compressed in a storage compression format that is compressed on top of the intermediate compression format; and wherein the graphics processing unit is configured to process the texture in the index-based compression format.
Waste fraction processing friction extruder unit comprising - a receptacle for receiving fragments of metallic or polymeric waste fractions, said receptacle comprising an outer tube, said outer tube being closed at an end section defining a space for collecting waste fractions entered into the receptacle, and - an extrusion device, said extrusion device comprising * a cylindrically shaped inner tube, said inner tube having a longitudinal axis (x) and an inner diameter (di), * a friction extruder screw that is coaxially arranged within the inner tube, and * an extrusion nozzle connected to the inner tube, wherein the friction extruder screw extends at least until to the extrusion nozzle, said extrusion nozzle being configured to receive material transferred by the friction extruder screw towards the nozzle and to shape, from said material, a continuous wire or filament, wherein the inner tube extends from the space for collecting waste fractions, and wherein the friction extruder screw extends within the inner tube into the space for collecting waste fractions, characterized in that the diameter (dth) of the thread of the friction extruder screw essentially matches the inner diameter (dit) of the inner tube, and wherein the friction extruder screw has a shaft of conic shape, wherein the diameter (ds) of the conic shape of the shaft increases with increasing distance from the space for collecting waste fractions. - a receptacle for receiving fragments of metallic or polymeric waste fractions, said receptacle comprising an outer tube, said outer tube being closed at an end section defining a space for collecting waste fractions entered into the receptacle, and - an extrusion device, said extrusion device comprising * a cylindrically shaped inner tube, said inner tube having a longitudinal axis (x) and an inner diameter (di), * a friction extruder screw that is coaxially arranged within the inner tube, and * an extrusion nozzle connected to the inner tube, wherein the friction extruder screw extends at least until to the extrusion nozzle, said extrusion nozzle being configured to receive material transferred by the friction extruder screw towards the nozzle and to shape, from said material, a continuous wire or filament, wherein the inner tube extends from the space for collecting waste fractions, and wherein the friction extruder screw extends within the inner tube into the space for collecting waste fractions, characterized in that the diameter (dth) of the thread of the friction extruder screw essentially matches the inner diameter (dit) of the inner tube, and wherein the friction extruder screw has a shaft of conic shape, wherein the diameter (ds) of the conic shape of the shaft increases with increasing distance from the space for collecting waste fractions.
A hot melt adhesive composition comprising: a) a metallocene catalyzed polyethylene copolymer, wherein the metallocene catalyzed polyethylene copolymer is an ethylene-octene copolymer with a melt index of 200 to 2000 g/10 min at 190°C, 2.16kg, measured in accordance with ASTM D1238; b) 0.5 to 8 wt% of a functionalized metallocene catalyzed polyethylene copolymer, wherein the functional group is selected from acrylic acid, acetate, sulfonate, maleic anhydride, fumaric acid and citraconic anhydride; and wherein the melt index ranges from 200 to 2,000 g/10 min at 190°C, 2.16kg, measured in accordance with ASTM D1238; c) greater than 22 wt% of a wax with a melting point ranging from 48.9 °C (120°F) to 121.1 °C (250°F), measured with a DSC; and d) a tackifier with a Ring and Ball softening point of 80°C to 110°C; wherein the wt% is based on the total weight of the adhesive. a) a metallocene catalyzed polyethylene copolymer, wherein the metallocene catalyzed polyethylene copolymer is an ethylene-octene copolymer with a melt index of 200 to 2000 g/10 min at 190°C, 2.16kg, measured in accordance with ASTM D1238; b) 0.5 to 8 wt% of a functionalized metallocene catalyzed polyethylene copolymer, wherein the functional group is selected from acrylic acid, acetate, sulfonate, maleic anhydride, fumaric acid and citraconic anhydride; and wherein the melt index ranges from 200 to 2,000 g/10 min at 190°C, 2.16kg, measured in accordance with ASTM D1238; c) greater than 22 wt% of a wax with a melting point ranging from 48.9 °C (120°F) to 121.1 °C (250°F), measured with a DSC; and d) a tackifier with a Ring and Ball softening point of 80°C to 110°C;
An auxiliary heater control device comprising: a temperature sensor that senses a temperature of a fluid of a fluid circulation circuit for circulating the fluid, the fluid circulation circuit being configured by connecting, in order, a heat pump apparatus performing defrost operation in addition to normal operation and including a compressor that is controllable, an auxiliary heater that is controllable, a heated fluid utilization apparatus that utilizes the fluid heated by the normal operation of the heat pump apparatus, and a circulation pump that is controllable and circulates the fluid from the auxiliary heater to the heated fluid utilization apparatus, the temperature sensor sensing the temperature of the fluid flowing between the auxiliary heater and the heated fluid utilization apparatus; and a control unit that monitors a sensed temperature tS sensed by the temperature sensor during the defrost operation of the heat pump apparatus, and selectively controls at least one of the circulation pump, the compressor, and the auxiliary heater according to the sensed temperature tS wherein the control unit increases a rotational speed of the circulation pump as a control operation of the circulation pump, wherein the control unit lowers an operating frequency of the compressor during the defrost operation as a control operation of the compressor, and wherein the control unit activates the auxiliary heater as a control operation of the auxiliary heater. a temperature sensor that senses a temperature of a fluid of a fluid circulation circuit for circulating the fluid, the fluid circulation circuit being configured by connecting, in order, a heat pump apparatus performing defrost operation in addition to normal operation and including a compressor that is controllable, an auxiliary heater that is controllable, a heated fluid utilization apparatus that utilizes the fluid heated by the normal operation of the heat pump apparatus, and a circulation pump that is controllable and circulates the fluid from the auxiliary heater to the heated fluid utilization apparatus, the temperature sensor sensing the temperature of the fluid flowing between the auxiliary heater and the heated fluid utilization apparatus; and a control unit that monitors a sensed temperature tS sensed by the temperature sensor during the defrost operation of the heat pump apparatus, and selectively controls at least one of the circulation pump, the compressor, and the auxiliary heater according to the sensed temperature tS wherein the control unit increases a rotational speed of the circulation pump as a control operation of the circulation pump, wherein the control unit lowers an operating frequency of the compressor during the defrost operation as a control operation of the compressor, and wherein the control unit activates the auxiliary heater as a control operation of the auxiliary heater.
Method for reducing phase aberration in an antenna system for satellite for receiving and/or emitting at least a spot beam, the antenna system comprising - A reflector; - An array feed comprising a plurality of feeds illuminating the reflector in emission mode and/or receiving illumination from the reflector in reception mode; characterised in that the method comprises a step of adjusting by a trimming system of the antenna system, the position of the reflector with respect to the array feed in order to correct phase aberration in the spot beam. - A reflector; - An array feed comprising a plurality of feeds illuminating the reflector in emission mode and/or receiving illumination from the reflector in reception mode; characterised in that the method comprises a step of adjusting by a trimming system of the antenna system, the position of the reflector with respect to the array feed in order to correct phase aberration in the spot beam.