mhurhangee/ep-ind-claims huggingface dataset:
A photoelectric conversion device (90, 90-1, 90-2, 90-3, 91, 100, 100a, 100b, 100c, 200), comprising: a first electrode (10, 10a, 10b, 10c) and a second electrode (20, 20a, 20b, 20c) facing each other; a photoelectric conversion layer (30, 30a, 30b, 30c) between the first electrode (10, 10a, 10b, 10c) and the second electrode (20, 20a, 20b, 20c), the photoelectric conversion layer (30, 30a, 30b, 30c) configured to absorb light in at least one part of a wavelength spectrum of light and to convert the absorbed light into an electric signal; and an inorganic nanolayer (40, 40a, 40b, 40c) having a thickness equal to or less than 5 nanometers (nm) between the first electrode (10, 10a, 10b, 10c) and the photoelectric conversion layer (30, 30a, 30b, 30c), wherein one surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the first electrode (10, 10a, 10b, 10c), and another, opposite surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the photoelectric conversion layer (30, 30a, 30b, 30c), characterized in that the inorganic nanolayer (40, 40a, 40b, 40c) includes a lanthanide element, and the lanthanide element is ytterbium (Yb). a first electrode (10, 10a, 10b, 10c) and a second electrode (20, 20a, 20b, 20c) facing each other; a photoelectric conversion layer (30, 30a, 30b, 30c) between the first electrode (10, 10a, 10b, 10c) and the second electrode (20, 20a, 20b, 20c), the photoelectric conversion layer (30, 30a, 30b, 30c) configured to absorb light in at least one part of a wavelength spectrum of light and to convert the absorbed light into an electric signal; and an inorganic nanolayer (40, 40a, 40b, 40c) having a thickness equal to or less than 5 nanometers (nm) between the first electrode (10, 10a, 10b, 10c) and the photoelectric conversion layer (30, 30a, 30b, 30c), wherein one surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the first electrode (10, 10a, 10b, 10c), and another, opposite surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the photoelectric conversion layer (30, 30a, 30b, 30c), one surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the first electrode (10, 10a, 10b, 10c), and another, opposite surface of the inorganic nanolayer (40, 40a, 40b, 40c) is in contact with the photoelectric conversion layer (30, 30a, 30b, 30c), characterized in that the inorganic nanolayer (40, 40a, 40b, 40c) includes a lanthanide element, and the lanthanide element is ytterbium (Yb).
A sensing magnet comprising: a through hole that is positioned at a center portion thereof; and a plurality of poles which are formed along an outer circumference thereof, wherein the plurality of poles include first poles and second poles (721, 723), outer ends of the first and second poles being located at the outer circumference of the sensing magnet and the first and second poles extending from the outer circumference in a radial direction of the sensing magnet toward the through hole, the second poles (721, 723) extending with a radial length greater than a radial length of the first poles such that the second poles have inner ends closer to the center of the sensing magnet than the first poles, wherein the plurality of poles is divided into a plurality of groups, each group comprising two of the second poles (721, 723) and a plurality of the first poles disposed between the two second poles, wherein the two second poles (721,723) of each group have a same polarity and are disposed at a boundary of the group, characterized in that the second poles (721, 723) comprise poles of S polarity and a same number of poles of N polarity, wherein the polarity of the second poles (721, 723) of each group is different from the polarity of the second poles of each adjacent group. a through hole that is positioned at a center portion thereof; and a plurality of poles which are formed along an outer circumference thereof, wherein the plurality of poles include first poles and second poles (721, 723), outer ends of the first and second poles being located at the outer circumference of the sensing magnet and the first and second poles extending from the outer circumference in a radial direction of the sensing magnet toward the through hole, the second poles (721, 723) extending with a radial length greater than a radial length of the first poles such that the second poles have inner ends closer to the center of the sensing magnet than the first poles, wherein the plurality of poles is divided into a plurality of groups, each group comprising two of the second poles (721, 723) and a plurality of the first poles disposed between the two second poles, wherein the two second poles (721,723) of each group have a same polarity and are disposed at a boundary of the group, characterized in that the second poles (721, 723) comprise poles of S polarity and a same number of poles of N polarity, wherein the polarity of the second poles (721, 723) of each group is different from the polarity of the second poles of each adjacent group.
A mixture comprising: at least one copolymer comprising at least two repeat units of Formula I-b: wherein: each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; and p is an integer of 1 to 10; and at least one organic polymer selected from the group of a hot melt processable thermoplastic, a hot melt processable elastomeric thermoset, and mixtures thereof; wherein the at least one organic polymer is not a tackifying resin, and is not nylon in the form of fibers; and wherein the mixture does not occur at the interface between two layers. at least one copolymer comprising at least two repeat units of Formula I-b: wherein: each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; and p is an integer of 1 to 10; and each R 1 is independently an alkyl, haloalkyl, aralkyl, alkenyl, aryl, or aryl substituted with an alkyl, alkoxy, or halo; each Y is independently an alkylene, aralkylene, or a combination thereof; G is a divalent residue equal to a diamine of formula R 3 HN-G-NHR 3 minus the two -NHR 3 groups; R 3 is hydrogen or alkyl or R 3 taken together with G and the nitrogen to which they are both attached form a heterocyclic group; n is independently an integer of 0 to 1500; and p is an integer of 1 to 10; and at least one organic polymer selected from the group of a hot melt processable thermoplastic, a hot melt processable elastomeric thermoset, and mixtures thereof; wherein the at least one organic polymer is not a tackifying resin, and is not nylon in the form of fibers; and wherein the mixture does not occur at the interface between two layers.
An orthodontic bracket for coupling an archwire with a tooth, comprising a bracket body (12, 412, 712, 912) configured to be mounted to the tooth, the bracket body (12, 412, 712, 912) including an archwire slot (16, 216, 416, 716,916) adapted to receive the archwire therein a movable member (14, 14A, 214, 414, 714, 914) engaged with the bracket body (12, 412, 712, 912) and movable relative thereto between an opened position in which the archwire is insertable into the archwire slot (16, 216, 416, 716,916), and a closed position in which the movable member (14, 14A, 214, 414, 714, 914) retains the archwire in the archwire slot (16, 216, 416, 716,916); and a securing mechanism configured to secure the movable member in at least the closed position, the securing mechanism including a projecting portion (66, 466, 766, 966) in one of the bracket body and the movable member, and a receiving portion (68, 68A, 468, 804, 1012) in the other of the bracket body and the movable member, wherein at least a portion of the projecting portion (66, 466, 766, 966) is capable of moving between an expanded state and a contracted state, the projecting portion (66, 466, 766, 966) defining a first cross dimension in the expanded state and a second cross dimension less than the first cross dimension in the contracted state, the projecting portion (66, 466, 766, 966) in expanded state cooperating with the receiving portion (68, 68A, 468, 804, 1012) to secure the movable member (14, 14A, 214, 414, 714, 914) in at least the closed position, wherein the projecting portion includes a spring pin (66,466,766,966) that has a central axis characterized in that at least a portion of spring pin (66,466,766,966) has a first effective diameter or radius of curvature in the expanded state and is capable of being flexed so as to have a second effective diameter or radius of curvature in the contracted state smaller than the first effective diameter or radius of curvature.
A method of camping a user equipment, UE, on a cell, based the UE being present in overlapping 5 th generation, 5G, and 4 th generation, 4G, areas, the method comprising: creating, by the UE, a combined most recently used, MRU, list by merging a list of 4G MRU frequencies having a 5G core, 5GC, and a list of 5G MRU frequencies; determining, by the UE, whether one of a 4G cell with 5G core and a 5G cell is available for camping the UE by performing (604A, 604B) a MRU scan on the combined MRU list; performing a 4G MRU frequency scan on a list of 4G MRU frequencies without 5GC in response to determining that one of the 4G cell with 5G core and the 5G cell is not available for camping the UE based on the MRU scan on the combined MRU list; and camping on a 4G cell without 5GC in response to determining that the 4G cell without 5GC is available for camping the UE based on the 4G MRU frequency scan on the list of 4G MRU frequencies without 5GC, wherein performing the MRU scan on the combined MRU list comprises performing a 5G MRU frequency scan on the list of 5G MRU frequencies in parallel to with a 4G with 5GC MRU frequency scan on the list of 4G MRU frequencies having the 5GC. creating, by the UE, a combined most recently used, MRU, list by merging a list of 4G MRU frequencies having a 5G core, 5GC, and a list of 5G MRU frequencies; determining, by the UE, whether one of a 4G cell with 5G core and a 5G cell is available for camping the UE by performing (604A, 604B) a MRU scan on the combined MRU list; performing a 4G MRU frequency scan on a list of 4G MRU frequencies without 5GC in response to determining that one of the 4G cell with 5G core and the 5G cell is not available for camping the UE based on the MRU scan on the combined MRU list; and camping on a 4G cell without 5GC in response to determining that the 4G cell without 5GC is available for camping the UE based on the 4G MRU frequency scan on the list of 4G MRU frequencies without 5GC, wherein performing the MRU scan on the combined MRU list comprises performing a 5G MRU frequency scan on the list of 5G MRU frequencies in parallel to with a 4G with 5GC MRU frequency scan on the list of 4G MRU frequencies having the 5GC.
A process for the production of microfibrillated cellulose, which process comprises the steps of: - providing a slurry comprising fibers, - adding the slurry to an extruder and - treating the slurry in the extruder so that the fibers are defibrillated and microfibrillated cellulose is formed - adding at least one modifying chemical to the extruder during treatment of the slurry. - providing a slurry comprising fibers, - adding the slurry to an extruder and - treating the slurry in the extruder so that the fibers are defibrillated and microfibrillated cellulose is formed - adding at least one modifying chemical to the extruder during treatment of the slurry.
Fuel injector for injecting fuel into the combustion chamber of an internal combustion engine, wherein the fuel injector comprises a nozzle element, wherein, in the nozzle element, there is formed a pressure chamber that can be supplied with pressurized fuel via a feed bore, wherein a longitudinally movable nozzle needle that opens or closes at least one injection opening is arranged in the pressure chamber, and wherein a cooling assembly is arranged so as to at least partially surround the nozzle element, wherein the cooling assembly comprises a cooling ring which delimits a multiplicity of, preferably more than 20, flow channels through which flow can pass and which serve for cooling the nozzle element, characterized in that a longitudinal channel and a distributor groove are formed in the cooling assembly, wherein the distributor groove runs close to the combustion chamber over approximately the entire circumference of the cooling assembly and the longitudinal channel serves for the supply of coolant to the distributor groove, and the flow channels branch off from the distributor groove and run in a direction away from the combustion chamber, wherein, in the cooling assembly, there is arranged a collector groove into which the flow channels open, and the nozzle element is clamped on the fuel injector by means of a nozzle clamping nut, and supply channels for the feed and discharge of the coolant into and out of the cooling assembly are formed in the nozzle clamping nut, wherein a first supply channel is hydraulically connected to the longitudinal channel, and wherein a second supply channel is hydraulically connected to the collector groove.
Device for reversible DC/DC conversion allowing an exchange of energy between two DC electric networks, which is asymmetric and comprises several converter modules (40; 70) on the high voltage side, and a converter module (41; 71) on the low voltage side comprising a current loop (50; 64) with several magnetic cores, characterised in that it comprises, from the low voltage side to the high voltage side: - an input capacitor connected to the input terminals of a converter stage at the output terminals from which are connected in series an LC resonating circuit or and inductance and a current loop, on the low voltage side; - several converters on the high voltage side each comprising a magnetic core passed through by the current loop (50; 64), a secondary winding wound around the magnetic core and connected to the input terminals of a converter stage, a capacitor unit connected to the output terminals of the converter stage. - an input capacitor connected to the input terminals of a converter stage at the output terminals from which are connected in series an LC resonating circuit or and inductance and a current loop, on the low voltage side; - several converters on the high voltage side each comprising a magnetic core passed through by the current loop (50; 64), a secondary winding wound around the magnetic core and connected to the input terminals of a converter stage, a capacitor unit connected to the output terminals of the converter stage.
A cyclic carbonate monomer containing double-sulfur five-membered ring functional group, wherein the cyclic carbonate monomer containing double-sulfur five-membered ring functional group has following chemical structure:
An atomic particle detection assembly including: a detection unit being positioned within a first chamber having a first operating pressure, the detection unit comprising: one or more detectors configured to detect atomic particles; and a pair of junction apparatuses supporting the detectors, each junction apparatus of the pair defining a sealed second chamber having a second operating pressure that is different from the first operating pressure, wherein sensing electronics are operatively attached to the detectors and the sensing electronics are housed within the second chamber of the junction apparatus, wherein the second chamber is sealed from the first chamber. a detection unit being positioned within a first chamber having a first operating pressure, the detection unit comprising: one or more detectors configured to detect atomic particles; and a pair of junction apparatuses supporting the detectors, each junction apparatus of the pair defining a sealed second chamber having a second operating pressure that is different from the first operating pressure, wherein sensing electronics are operatively attached to the detectors and the sensing electronics are housed within the second chamber of the junction apparatus, wherein the second chamber is sealed from the first chamber. one or more detectors configured to detect atomic particles; and a pair of junction apparatuses supporting the detectors, each junction apparatus of the pair defining a sealed second chamber having a second operating pressure that is different from the first operating pressure, wherein sensing electronics are operatively attached to the detectors and the sensing electronics are housed within the second chamber of the junction apparatus, wherein the second chamber is sealed from the first chamber.
A method for processing waste solution in a plate-making process of a photosensitive planographic printing plate, which is discharged when the plate-making process is carried out using a developer for a photosensitive planographic printing plate, the method comprising: evaporating and concentrating the waste solution using an evaporative concentration apparatus to separate the waste solution into water vapor and a dissolved component, heating the waste solution in the plate-making process by a heating means in an evaporation container having a base resistance; taking out the water vapor separated from the waste solution in the plate-making process from the evaporation container, and condensing the water vapor in a cooling means, to turn the water vapor into reclaimed water, and applying pressure, using a pump, to a concentrate of the waste solution in the plate-making process, which has been concentrated by evaporative concentration, and collecting the concentrate in a recovery tank, wherein the developer for a photosensitive planographic printing plate comprises at least one sugar selected from non-reducing sugars and at least one base. evaporating and concentrating the waste solution using an evaporative concentration apparatus to separate the waste solution into water vapor and a dissolved component, heating the waste solution in the plate-making process by a heating means in an evaporation container having a base resistance; taking out the water vapor separated from the waste solution in the plate-making process from the evaporation container, and condensing the water vapor in a cooling means, to turn the water vapor into reclaimed water, and applying pressure, using a pump, to a concentrate of the waste solution in the plate-making process, which has been concentrated by evaporative concentration, and collecting the concentrate in a recovery tank, wherein
Host device arranged for Wi-Fi wireless communication with mobile devices, each mobile device (120,120') comprising a mobile transceiver and a mobile processor, the mobile transceiver being arranged for wireless communication according to a communication protocol, the mobile processor being arranged for distance measurement via a ranging protocol for determining a distance between the host and the mobile device based on a round trip time measurement, the host device comprising a host transceiver for wireless communication according to the communication protocol, a host processor arranged for distance measurement via the ranging protocol, and a user interface comprising a connect button, the host device arranged to use a pre-association discovery service to determine mobile devices within Wi-Fi communication range; the host processor being arranged to execute a connection sequence upon a user activating the connect button, the connection sequence comprising determining, by executing the ranging protocol with the mobile devices previously determined as being in Wi-Fi wireless communication range, one or more respective distances, each respective distance being between the host and a respective mobile device, wherein said determination is done prior to establishing a Wi-Fi connection with a first mobile device; - detecting whether the first mobile device exhibits a movement with respect to the host device, and, if so, executing a Wi-Fi connection action regarding a connection between the first mobile device and the host device. each mobile device (120,120') comprising a mobile transceiver and a mobile processor, the mobile transceiver being arranged for wireless communication according to a communication protocol, the mobile processor being arranged for distance measurement via a ranging protocol for determining a distance between the host and the mobile device based on a round trip time measurement, the host device comprising a host transceiver for wireless communication according to the communication protocol, a host processor arranged for distance measurement via the ranging protocol, and a user interface comprising a connect button, the host device arranged to use a pre-association discovery service to determine mobile devices within Wi-Fi communication range; the host processor being arranged to execute a connection sequence upon a user activating the connect button, the connection sequence comprising determining, by executing the ranging protocol with the mobile devices previously determined as being in Wi-Fi wireless communication range, one or more respective distances, each respective distance being between the host and a respective mobile device, wherein said determination is done prior to establishing a Wi-Fi connection with a first mobile device; - detecting whether the first mobile device exhibits a movement with respect to the host device, and, if so, - detecting whether the first mobile device exhibits a movement with respect to the host device, and, if so, executing a Wi-Fi connection action regarding a connection between the first mobile device and the host device.