mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a substrate including a glass material and/or a polymer resin; an insulating layer on a top surface of the substrate;a plurality of light-emitting diodes (OLED) on the insulating layer and including two light-emitting diodes (OLED) spaced apart from each other and having a transmission area therebetween; and a rear cover layer on a rear surface of the substrate and including a first portion of the rear cover layer located in the transmission area, characterized in that the rear surface of the substrate includes a plurality of concave structures located in the transmission area, the first portion covers the plurality of concave structures and includes a transparent material, wherein the plurality of concave structures is filled with the transparent material of the first portion, and wherein a difference between the refractive index of the first portion and a refractive index of the substrate is 0.5 or less. a substrate including a glass material and/or a polymer resin; an insulating layer on a top surface of the substrate;a plurality of light-emitting diodes (OLED) on the insulating layer and including two light-emitting diodes (OLED) spaced apart from each other and having a transmission area therebetween; and a rear cover layer on a rear surface of the substrate and including a first portion of the rear cover layer located in the transmission area, characterized in that the rear surface of the substrate includes a plurality of concave structures located in the transmission area, the first portion covers the plurality of concave structures and includes a transparent material, wherein the plurality of concave structures is filled with the transparent material of the first portion, and wherein a difference between the refractive index of the first portion and a refractive index of the substrate is 0.5 or less.
An apparatus comprising: a register; a first pipeline to decode a first instruction, wherein the first instruction writes a value to the register upon completing execution, and wherein the value is determined or available when the first pipeline decodes the first instruction without reading a register file; a means for storing, the means for storing to store entries in a cache and to store the value in an entry in the cache upon decoding the first instruction; a means for tagging, the means for tagging to tag each entry in the cache and to search the cache based upon the tags, and to tag the entry with the register; and a means for setting, the means for setting to set the entry as valid. a register; a first pipeline to decode a first instruction, wherein the first instruction writes a value to the register upon completing execution, and wherein the value is determined or available when the first pipeline decodes the first instruction without reading a register file; a means for storing, the means for storing to store entries in a cache and to store the value in an entry in the cache upon decoding the first instruction; a means for tagging, the means for tagging to tag each entry in the cache and to search the cache based upon the tags, and to tag the entry with the register; and a means for setting, the means for setting to set the entry as valid.
A high capacity cryopreservation bag, which is adapted for use in a high capacity biological material, closed cryopreservation banking system, and which is resistant to liquid nitrogen temperatures, comprising: a. a first fluorinated ethylene propylene enclosure; b. at least one rigid FEP inlet conduit, in fluid connection with the first enclosure, and connectable to a first flexible sterile-weldable conduit which is PVC tubing; c. at least one rigid FEP outlet conduit, in fluid connection with the first enclosure, and connectable to a second flexible sterile-weldable conduit which is PVC tubing; and d. a FEP pouch, which is initially open at one end, and which is contiguous with the first enclosure, but thermosealed therefrom, and encircling both the rigid inlet conduit and the rigid outlet conduit, such that the pouch is neither in fluid communication with the first enclosure, nor the inlet nor outlet conduits; and wherein the pouch extends sufficiently far enough such that when the first enclosure has been filled with the biological material, the PVC tubes may be withdrawn into the pouch, which can then be thermosealed to form a second enclosure, which now contains both PVC tubes. a. a first fluorinated ethylene propylene enclosure; b. at least one rigid FEP inlet conduit, in fluid connection with the first enclosure, and connectable to a first flexible sterile-weldable conduit which is PVC tubing; c. at least one rigid FEP outlet conduit, in fluid connection with the first enclosure, and connectable to a second flexible sterile-weldable conduit which is PVC tubing; and d. a FEP pouch, which is initially open at one end, and which is contiguous with the first enclosure, but thermosealed therefrom, and encircling both the rigid inlet conduit and the rigid outlet conduit, such that the pouch is neither in fluid communication with the first enclosure, nor the inlet nor outlet conduits; and wherein the pouch extends sufficiently far enough such that when the first enclosure has been filled with the biological material, the PVC tubes may be withdrawn into the pouch, which can then be thermosealed to form a second enclosure, which now contains both PVC tubes.
A sulfur-carbon composite comprising: a porous carbon material comprising interior and exterior surfaces coated with a polymer comprising an ion conductive functional group and an electron conductive functional group; and sulfur present on at least a portion of inside pores and on a surface of the porous carbon material, wherein the sulfur-carbon composite contains sulfur and the porous carbon material in a weight ratio of 9: 1 to 7: 3. a porous carbon material comprising interior and exterior surfaces coated with a polymer comprising an ion conductive functional group and an electron conductive functional group; and sulfur present on at least a portion of inside pores and on a surface of the porous carbon material, wherein the sulfur-carbon composite contains sulfur and the porous carbon material in a weight ratio of 9: 1 to 7: 3.
Method for capturing, by means of an imager, one or more images of an object or of a portion of an object presented at a distance in front of said imager, said object being lit by means of a lighting system, comprising the following steps: - a step of estimating a 3D model of the object as it will be at a predefined time at which said imager captures the image, referred to as the predicted 3D model, said step of estimating the predicted 3D model comprising a step of defining a plurality of 3D models of said object at a plurality of respective consecutive times, referred to as the acquired 3D models, the step of estimating the acquired 3D models comprising, for each acquired 3D model, a step of acquiring images of the object by means of a 3D image-capturing system and a step of defining the acquired 3D model on the basis of the images of the object captured by the image-capturing system, said predicted 3D model being estimated by extrapolating from said acquired 3D models, - a step of simulating, using said predicted 3D model, the lighting of the object as it will be at said predefined time according to a plurality of lighting modes in order to obtain, for each lighting mode of the plurality, an estimated image of said object in said lighting mode, - a step of selecting a lighting mode of the lighting system on the basis of the estimated images, - a step of controlling the lighting system in order for it to be in the lighting mode that was selected, and - a step of controlling the imager, at said time at which the image of said object is captured, in order for said capture to be made. - a step of estimating a 3D model of the object as it will be at a predefined time at which said imager captures the image, referred to as the predicted 3D model, said step of estimating the predicted 3D model comprising a step of defining a plurality of 3D models of said object at a plurality of respective consecutive times, referred to as the acquired 3D models, the step of estimating the acquired 3D models comprising, for each acquired 3D model, a step of acquiring images of the object by means of a 3D image-capturing system and a step of defining the acquired 3D model on the basis of the images of the object captured by the image-capturing system, said predicted 3D model being estimated by extrapolating from said acquired 3D models, - a step of simulating, using said predicted 3D model, the lighting of the object as it will be at said predefined time according to a plurality of lighting modes in order to obtain, for each lighting mode of the plurality, an estimated image of said object in said lighting mode, - a step of selecting a lighting mode of the lighting system on the basis of the estimated images, - a step of controlling the lighting system in order for it to be in the lighting mode that was selected, and - a step of controlling the imager, at said time at which the image of said object is captured, in order for said capture to be made.
A use of a cosmetic composition for skin whitening, wherein the cosmetic composition comprises a mixture of arctiin and arctigenin as an active ingredient, said mixture of arctiin and arctigenin has a weight ratio of 3:1 to 1:3 and is included in an amount ranging from 0.001 to 15.0 wt %, based on a total weight of the cosmetic composition to inhibit melanin synthesis.
A method (300, 300') for full duplex communications, implemented by a full duplex wireless communication device for communications using an array of antennas, wherein full duplex communications refer to sending and receiving data by the wireless communication device at the same time and frequency resource elements, characterized by: switching an operation mode of the full duplex wireless communication device between an antenna sharing mode, in which each of the antennas is used for both transmission and reception at a same frequency band, and an antenna isolation mode, in which said each of the antennas is used for either transmission or reception at the same frequency band; and performing full duplex wireless communications in the other operation mode than the one of the antenna sharing mode and the antenna isolation mode from which the switching has been made. switching an operation mode of the full duplex wireless communication device between an antenna sharing mode, in which each of the antennas is used for both transmission and reception at a same frequency band, and an antenna isolation mode, in which said each of the antennas is used for either transmission or reception at the same frequency band; and performing full duplex wireless communications in the other operation mode than the one of the antenna sharing mode and the antenna isolation mode from which the switching has been made.
A semiconductor surface treating agent composition, comprising a compound generating a fluorine ion in water, a carbon radical generating agent which generates a carbon radical by heating or light radiation selected from the group consisting of an azonitrile type carbon radical generating agent; an azoamide type carbon radical generating agent; a chain-like azoamidine type type carbon radical generating agent; a cyclic azoamidine type carbon radical generating agent; an azoester type carbon radical generating agent; an azonitrile carboxylic acid type carbon radical generating agent; an azoalkyl type carbon radical generating agent; a macroazo type carbon radical generating agent; a benzoin alkyl ether type carbon radical generating agent; a benzylketal type carbon radical generating agent; a benzophenone type carbon radical generating agent; an aminobenzoate ester type carbon radical generating agent; an 1,2-hydroxyalkylphenone type carbon radical generating agent; an 1,2-aminoalkylphenone type carbon radical generating agent; an acylphosphine oxide type carbon radical generating agent; an anthraquinone type carbon radical generating agent; a thioxanthone type carbon radical generating agent; an acridone type carbon radical generating agent; a biimidazole type carbon radical generating agent selected from - 2, 2'-bis(o-chlorophenyl-4,5,5',5'-tetraphenyl-1,2'-biimidazole, and - 2,2'-bis(o-chlorophenyl)-4,5,5',5'-tetrakis-3,4,5-trimethoxyphenyl)-1,2'-biimidazole; an oxime ester type carbon radical generating agent; and a titanocene type carbon radical generating agent, water, an organic solvent, and at least one kind of compound selected from a hydroxylamine derivative represented by the general formula: (wherein R 1 represents a linear, branched or cyclic C1-6 alkyl group, or a linear or branched C1-4 substituted alkyl group having 1 to 3 hydroxyl groups; R 2 represents a hydrogen atom, a linear, branched or cyclic C1-6 alkyl group, or a linear or branched C1-4 substituted alkyl group having 1 to 3 hydroxyl groups). - 2, 2'-bis(o-chlorophenyl-4,5,5',5'-tetraphenyl-1,2'-biimidazole, and - 2,2'-bis(o-chlorophenyl)-4,5,5',5'-tetrakis-3,4,5-trimethoxyphenyl)-1,2'-biimidazole;
A process for producing a coated carrier suitable for a developer in an electrophotographic imaging process comprising: - forming an emulsion comprising at least one surfactant, an aliphatic cycloacrylate, a dialklyaminoacrylate, and optionally carbon black; - polymerizing the aliphatic cycloacrylate and the dialklyaminoacrylate to form a copolymer resin having a number average molecular weight (M n) of from 60,000 to 400,000 and a weight average molecular weight (M w) of from 200,000 to 800,000 as determined by Gel Permeation Chromatography using polystyrene standards; - recovering the copolymer resin; - drying the copolymer resin to form a powder coating; and - applying the powder coating to a core. - forming an emulsion comprising at least one surfactant, an aliphatic cycloacrylate, a dialklyaminoacrylate, and optionally carbon black; - polymerizing the aliphatic cycloacrylate and the dialklyaminoacrylate to form a copolymer resin having a number average molecular weight (M n) of from 60,000 to 400,000 and a weight average molecular weight (M w) of from 200,000 to 800,000 as determined by Gel Permeation Chromatography using polystyrene standards; - recovering the copolymer resin; - drying the copolymer resin to form a powder coating; and - applying the powder coating to a core.
A method for inactivating an influenza virus propagated in cell culture and inactivating contaminating adventitious viruses, comprising at least the following steps: (a) treating an influenza virus-containing fluid with beta-propiolactone, and (b) irradiating the influenza virus-containing fluid with UV light. (a) treating an influenza virus-containing fluid with beta-propiolactone, and (b) irradiating the influenza virus-containing fluid with UV light.
A system for making an incision in eye tissue, comprising: light generating means for generating a beam of light; focusing means for focusing the beam at a first focal point located at a first depth in the eye tissue; scanning means for scanning the beam in a pattern on the eye while focused at the first depth; wherein the focusing means is adapted to focus the beam at a second focal point located at a second depth in the eye tissue different than the first depth; and wherein the scanning means is adapted to scan the beam in the pattern on the eye while focused at the second depth, wherein the system further comprises: a controller; and imaging means for generating an image of the eye tissue, from which a target portion of the eye tissue can be identified, wherein the controller is configured to cause the scanning of the beam in the pattern at the identified target portion of the eye tissue, wherein the imaging means comprises an Optical Coherence Tomography device, and wherein the controller is configured to cause, using the generated image, the determination of at least one of a number of pulses of the light beam, a repetition rate of the light beam, and a configuration of the pattern. light generating means for generating a beam of light; focusing means for focusing the beam at a first focal point located at a first depth in the eye tissue; scanning means for scanning the beam in a pattern on the eye while focused at the first depth; wherein the focusing means is adapted to focus the beam at a second focal point located at a second depth in the eye tissue different than the first depth; and wherein the scanning means is adapted to scan the beam in the pattern on the eye while focused at the second depth, wherein the system further comprises: a controller; and imaging means for generating an image of the eye tissue, from which a target portion of the eye tissue can be identified, wherein the controller is configured to cause the scanning of the beam in the pattern at the identified target portion of the eye tissue, wherein the imaging means comprises an Optical Coherence Tomography device, and wherein the controller is configured to cause, using the generated image, the determination of at least one of a number of pulses of the light beam, a repetition rate of the light beam, and a configuration of the pattern. a controller; and imaging means for generating an image of the eye tissue, from which a target portion of the eye tissue can be identified, wherein the controller is configured to cause the scanning of the beam in the pattern at the identified target portion of the eye tissue, wherein the imaging means comprises an Optical Coherence Tomography device, and wherein the controller is configured to cause, using the generated image, the determination of at least one of a number of pulses of the light beam, a repetition rate of the light beam, and a configuration of the pattern.
A method for performing a measurement to discover one or more small cells (811, 812) in a wireless communication system, the method comprising: performing, by a user equipment (801, 802), a measurement by using a first type signal; receiving, by the user equipment, a configuration for a second type signal indicating a periodicity and an offset of the second type signal, wherein the second type signal is a discovery signal; and performing, by the user equipment, a discovery signal based Radio Resource Management, RRM, measurement by using the second type signal, wherein the second type signal comprises a Primary Synchronization Signal, PSS, a Secondary Synchronization Signal, SSS, and a Cell-specific Reference Signal, CRS, received within a predefined duration, wherein the offset of the second type signal is in a number of subframes, wherein the predefined duration for receiving all of the PSS, SSS, and CRS is set to 6ms, and wherein the periodicity for receiving all of the PSS, SSS, and CRS is set to 40ms or 80ms. performing, by a user equipment (801, 802), a measurement by using a first type signal; receiving, by the user equipment, a configuration for a second type signal indicating a periodicity and an offset of the second type signal, wherein the second type signal is a discovery signal; and performing, by the user equipment, a discovery signal based Radio Resource Management, RRM, measurement by using the second type signal, wherein the second type signal comprises a Primary Synchronization Signal, PSS, a Secondary Synchronization Signal, SSS, and a Cell-specific Reference Signal, CRS, received within a predefined duration, wherein the offset of the second type signal is in a number of subframes, wherein the predefined duration for receiving all of the PSS, SSS, and CRS is set to 6ms, and wherein the periodicity for receiving all of the PSS, SSS, and CRS is set to 40ms or 80ms.
A system for facilitating the execution of application programs on a computing device having an operating system implementation environment, comprising: a first application programming interface, API, intercept layer configured to intercept an API call from an application executing within the operating system implementation environment running on the computing device; wherein handling of said API call necessitates a component which is not implemented in the operating system implementation environment; and an API redirect rules engine configured to instruct said first API intercept layer to redirect said API call away from said unimplemented component, wherein said rules engine is configured to apply at least one redirection rule; wherein said API call is redirected to a cloud server or another device on the same network as the computing device for handling the API call. a first application programming interface, API, intercept layer configured to intercept an API call from an application executing within the operating system implementation environment running on the computing device; wherein handling of said API call necessitates a component which is not implemented in the operating system implementation environment; and an API redirect rules engine configured to instruct said first API intercept layer to redirect said API call away from said unimplemented component, wherein said rules engine is configured to apply at least one redirection rule; wherein said API call is redirected to a cloud server or another device on the same network as the computing device for handling the API call.
An electromechanical actuator for actuating a flight control surface of an aircraft, the actuator comprising: a motor; a first screw configured for translation movement relative to a structure of the aircraft when driven by the motor; a second screw mounted in series with the first screw, the first screw and the second screw defining a load path between the aircraft structure and the flight control surface; a fuse element coupling the first screw and the second screw together to permit translation movement of the second screw together with the first screw, the fuse element permitting at least partial disengagement of the second screw from the first screw to permit translation of the second screw relative to the first screw. a motor; a first screw configured for translation movement relative to a structure of the aircraft when driven by the motor; a second screw mounted in series with the first screw, the first screw and the second screw defining a load path between the aircraft structure and the flight control surface; a fuse element coupling the first screw and the second screw together to permit translation movement of the second screw together with the first screw, the fuse element permitting at least partial disengagement of the second screw from the first screw to permit translation of the second screw relative to the first screw.