mhurhangee/ep-ind-claims huggingface dataset:
An organic electroluminescence module having a touch function of detecting contact or proximity of an operation body, comprising: a touch detection circuit unit comprising a capacitance touch detection circuit section; and a light emitting element drive circuit unit comprising a light emitting element drive circuit section configured to drive an organic electroluminescence panel, wherein the organic electroluminescence panel comprises light emitting areas and a pair of at least two plate electrodes (4A, 4B, 6) that are internally and mutually opposed, the pair of electrodes (4A, 4B, 6) is connected to the light emitting element drive circuit unit, one of the pair of electrodes (4A, 4B, 6) is a touch detection electrode, both or either one of the pair of electrodes (4A, 4B, 6) is connected to the touch detection circuit unit, a first electrode (4A, 4B) of the pair of electrodes (4A, 4B, 6) is divided into portions characterized in that a second electrode of the pair of electrodes (4A, 4B, 6) is a single piece, and the organic electroluminescence module is configured so that a same potential is applied to the divided portions of the first electrode (4A, 4B) during a touch detection period while the second electrode of the pair of electrodes (4A, 4B, 6) is floating or having the same potential applied thereto. a touch detection circuit unit comprising a capacitance touch detection circuit section; and a light emitting element drive circuit unit comprising a light emitting element drive circuit section configured to drive an organic electroluminescence panel, wherein the organic electroluminescence panel comprises light emitting areas and a pair of at least two plate electrodes (4A, 4B, 6) that are internally and mutually opposed, the pair of electrodes (4A, 4B, 6) is connected to the light emitting element drive circuit unit, one of the pair of electrodes (4A, 4B, 6) is a touch detection electrode, both or either one of the pair of electrodes (4A, 4B, 6) is connected to the touch detection circuit unit, a first electrode (4A, 4B) of the pair of electrodes (4A, 4B, 6) is divided into portions characterized in that a second electrode of the pair of electrodes (4A, 4B, 6) is a single piece, and the organic electroluminescence module is configured so that a same potential is applied to the divided portions of the first electrode (4A, 4B) during a touch detection period while the second electrode of the pair of electrodes (4A, 4B, 6) is floating or having the same potential applied thereto.
Compound of Formula, or stereochemically isomeric forms thereof, for use in the treatment of chronic fatigue syndrome, wherein n is an integer selected from 1 to 8; R 1 is selected from the group comprising hydrogen, hydroxyl, amino, -OSi(CH 3) 2 C(CH 3) 3, C 1-6 alkyl, C 1-6 alkylcarbonyloxy and C 1-6 alkoxy; R 2 is selected from the group comprising hydrogen, C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; each R 4 is independently selected from the group comprising hydrogen, hydroxyl, amino, -OSi(CH 3) 2 C(CH 3) 3, C 1-6 alkyl, C 1-6 alkylcarbonyloxy and C 1-6 alkoxy; each R 5 is independently selected from the group comprising hydrogen, C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; R 6 is selected from the group comprising hydrogen, C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; R 3 is selected from the group comprising hydroxyl, and and m is an integer selected from 1, 2 or 3, each R 7 is independently selected from the group comprising OH, SH, C 1-6 alkyl and C 1-6 alkoxy, and L 2 is selected from -NH- or methylene; L 1 is selected from C 1-6 alkylene or C 1-6 alkyleneoxy; X 1 is selected from N or + NR 8, wherein R 8 is selected from the group comprising C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; each X 2 is independently selected from N or + NR 8, wherein R 8 is selected from the group comprising C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; X 3 is selected from N or + NR 8, wherein R 8 is selected from the group comprising C 1-6 alkyl, C 6-12 aryl and C 6-12 arylC 1-6 alkyl; and wherein at least one of R 2, R 5, R 6 or R 8 is selected from C 6-12 aryl or C 6-12 arylC 1-6 alkyl; or, a pharmaceutically acceptable salt thereof.
A transparent polypropylene film comprising at least two UV-absorbing additives, a first additive being a non-aggregated inorganic material present in the film composition in an amount of from 0.1% to 5.0% by weight, and a second additive comprising an organic material selected from triazines, hindered amines, oxanilides, cyanoacrylates, benzotriazole(s) and benzophenone(s) and present in the film in an amount of less than 2.0% by weight and wherein when both benzotriazole(s) and benzophenone(s) are present in the film, the ratio of benzotriazole(s) to benzophenone(s) is greater than 0.5, wherein the average particle size of the inorganic additive is less than 100nm.
An apparatus comprising: a jetting assembly including a plurality of nozzles for ejecting droplets on a substrate; characterized in that it comprises also an enclosure capable of, during printing, enclosing a space between the jetting assembly and an area of the substrate within which the jetting assembly prints on the substrate, the enclosure including an inlet for introducing into the enclosed space at least any one of alcohol, MEK, a sanitizing agent and a bacterial growth suppressant as a material capable of controlling an environment of the enclosure. a jetting assembly including a plurality of nozzles for ejecting droplets on a substrate; characterized in that it comprises also an enclosure capable of, during printing, enclosing a space between the jetting assembly and an area of the substrate within which the jetting assembly prints on the substrate, the enclosure including an inlet for introducing into the enclosed space at least any one of alcohol, MEK, a sanitizing agent and a bacterial growth suppressant as a material capable of controlling an environment of the enclosure.
A conotoxin peptide, comprising the formula of SEQ ID NO:23, SEQ ID NO: 24, SEQ ID NO:25, SEQ ID NO: 26, SEQ ID NO: 29, SEQ ID NO:3, SEQ ID NO:5, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID N0:10, SEQ ID NO:11, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, SEQ ID NO:16, SEQ ID NO:17, or SEQ ID NO:18.
Device for testing the sealing of at least one system for insulating two mediums in a sealed manner, said test device including a casing comprising an inflatable seal (48, 148) configured to contact, in the inflated state, with the system and to ensure a sealing enabling the definition of a test volume between the system and the casing, a pneumatic pump (P1, P2) and a pneumatic circuit (C1, C2) configured, in a first step, to connect the pump (P1, P2) to the inflatable seal (48, 148) such that the pump (P1, P2) inflates the inflatable seal (48, 148), and in a second step, to connect the pump (P1, P2) to the test volume such that the pump (P1, P2) generates in the test volume a pressure at a given value, and means (78, 178) for measuring the pressure in the test volume, characterized in that the pneumatic circuit (C1, C2) is configured to ensure at least a connection of the test volume with a depression orifice of the pump.
A light receiving device comprising a pixel array unit in which pixels each having a first tap for detecting charge photoelectrically converted by a photoelectric conversion unit and a second tap for detecting charge photoelectrically converted by the photoelectric conversion unit are two-dimensionally arranged in a matrix, wherein in the pixel array unit, four vertical signal lines for outputting a detection signal detected by any one of the first tap and the second tap to the outside of the pixel array unit are arranged for one pixel column; two vertically adjacent pixels form a pair, the first taps of the paired two pixels being connected to the same vertical signal line, and the second taps of the paired two pixels being connected to the same vertical signal line; two taps connected to one vertical signal line share a voltage application unit; and wherein either the four vertical signal lines are arranged such that two vertical signal lines that are configured to output the detection signal of the first tap are adjacent to each other, and two vertical signal lines that are configured to output the detection signal of the second tap are adjacent to each other, or the four vertical signal lines are arranged such that a vertical signal line that outputs the detection signal of the first tap and a vertical signal line that outputs the detection signal of the second tap are alternately arranged. a pixel array unit in which pixels each having a first tap for detecting charge photoelectrically converted by a photoelectric conversion unit and a second tap for detecting charge photoelectrically converted by the photoelectric conversion unit are two-dimensionally arranged in a matrix, wherein in the pixel array unit, four vertical signal lines for outputting a detection signal detected by any one of the first tap and the second tap to the outside of the pixel array unit are arranged for one pixel column; two vertically adjacent pixels form a pair, the first taps of the paired two pixels being connected to the same vertical signal line, and the second taps of the paired two pixels being connected to the same vertical signal line; two taps connected to one vertical signal line share a voltage application unit; and wherein either the four vertical signal lines are arranged such that two vertical signal lines that are configured to output the detection signal of the first tap are adjacent to each other, and two vertical signal lines that are configured to output the detection signal of the second tap are adjacent to each other, or the four vertical signal lines are arranged such that a vertical signal line that outputs the detection signal of the first tap and a vertical signal line that outputs the detection signal of the second tap are alternately arranged.
A method of providing a transaction forwarding service in a network, the network comprising a plurality of full nodes storing a blockchain and a light client, the method comprising: a) executing a smart contract in the blockchain so as to determine whether a respective full node of the plurality of full nodes is eligible to execute the smart contract, the smart contract specifying eligible full nodes, a filter of the respective light client, the filter obfuscating the respective light client's address, and a reward for executing the smart contract; b) forwarding, by the respective full node, data relating to a transaction that matches the filter of the respective light client to the respective light client, along with a proof that the transaction is included in the blockchain; c) receiving, by the respective full node, a signed sequential acknowledgement from the respective light client verifying the transaction, wherein steps b) and c) are sequentially repeated with the acknowledgements indicating a number of times steps b) and c) have been repeated; and d) presenting, by the respective full node, the signed sequential acknowledgement with the highest sequential number as a receipt to the smart contract to claim the reward in proportion to the amount of the computational processing work done by the respective full node. a) executing a smart contract in the blockchain so as to determine whether a respective full node of the plurality of full nodes is eligible to execute the smart contract, the smart contract specifying eligible full nodes, a filter of the respective light client, the filter obfuscating the respective light client's address, and a reward for executing the smart contract; b) forwarding, by the respective full node, data relating to a transaction that matches the filter of the respective light client to the respective light client, along with a proof that the transaction is included in the blockchain; c) receiving, by the respective full node, a signed sequential acknowledgement from the respective light client verifying the transaction, wherein steps b) and c) are sequentially repeated with the acknowledgements indicating a number of times steps b) and c) have been repeated; and d) presenting, by the respective full node, the signed sequential acknowledgement with the highest sequential number as a receipt to the smart contract to claim the reward in proportion to the amount of the computational processing work done by the respective full node.
A process for manufacturing a separation membrane comprising: sealing the outer circumference of a porous monolith substrate; causing a separation membrane precursor solution to pass through through-holes in the porous monolith substrate, to form a membrane of the precursor solution on the surface of the through-holes; disposing a dryer at an open end of the porous monolith substrate; and drying the membrane by causing hot wind to pass through the through-holes, wherein the hot wind is at 50 to 300°C and is caused to pass through the through-holes at a rate of 0.5 to 30 m/s.
Solubilisation product consisting of resveratrol and polysorbate 80 and polysorbate 20 as well as at least one medium-chain triglyceride, and tocopherol, in particular mixed tocopherols, for use as a pharmaceutical product.
Shoe sole comprising a rubber composition comprising at least: - 60 to 100 phr of a nitrile-butadiene rubber; - between 10 and 50 phr of a reinforcing filler; - a plasticizing system comprising: - a hydrocarbon-based resin having a Tg of greater than 20°C; - a plasticizer that is liquid at 20°C, the Tg of which is less than -20°C; - a crosslinking system, wherein the liquid plasticizer is selected from the group consisting of liquid diene polymers, polyolefin oils, paraffinic oils, DAE oils, MES oils, TDAE oils, RAE oils, TRAE oils, SRAE oils, mineral oils, vegetable oils, ether plasticizers, ester plasticizers, phosphate plasticizers, sulphonate plasticizers and mixtures of these compounds. - 60 to 100 phr of a nitrile-butadiene rubber; - between 10 and 50 phr of a reinforcing filler; - a plasticizing system comprising: - a hydrocarbon-based resin having a Tg of greater than 20°C; - a plasticizer that is liquid at 20°C, the Tg of which is less than -20°C; - a hydrocarbon-based resin having a Tg of greater than 20°C; - a plasticizer that is liquid at 20°C, the Tg of which is less than -20°C; - a crosslinking system,
A generator comprising: a power generation section (60, 70) including a stator having three main windings (98a,b,c); the generator being characterized by: an autotransformer unit, ATU, section (62, 72) integrated with the power generation section by integrating at least two secondary windings (100a,b...i) connected to each of the three main windings (98a,b,c), into said power generation section, therefore eliminating winding duplication in both the power generation and ATU sections; a first set of conductors (106a,b,c) connected to the three main windings (98a,b,c); and a second set of conductors (108a,b...i) connected to each of the at least two secondary windings (100a,b...i); wherein the first set of conductors (106a,b,c) is configured to supply a first generated power to a first load, and the second set of conductors (108a,b...i) is configured to supply a second generated power to a second load (82, 110). a power generation section (60, 70) including a stator having three main windings (98a,b,c); the generator being characterized by: an autotransformer unit, ATU, section (62, 72) integrated with the power generation section by integrating at least two secondary windings (100a,b...i) connected to each of the three main windings (98a,b,c), into said power generation section, therefore eliminating winding duplication in both the power generation and ATU sections; a first set of conductors (106a,b,c) connected to the three main windings (98a,b,c); and a second set of conductors (108a,b...i) connected to each of the at least two secondary windings (100a,b...i); an autotransformer unit, ATU, section (62, 72) integrated with the power generation section by integrating at least two secondary windings (100a,b...i) connected to each of the three main windings (98a,b,c), into said power generation section, therefore eliminating winding duplication in both the power generation and ATU sections; a first set of conductors (106a,b,c) connected to the three main windings (98a,b,c); and a second set of conductors (108a,b...i) connected to each of the at least two secondary windings (100a,b...i); wherein the first set of conductors (106a,b,c) is configured to supply a first generated power to a first load, and the second set of conductors (108a,b...i) is configured to supply a second generated power to a second load (82, 110).
An exhaust gas scrubber (1, 1') for cleaning exhaust gases from combustion engines, particularly ship engines, of impurities, the exhaust gas scrubber comprising an exhaust gas feed point (34, 34') to be connected to a feed channel (2, 2') for feeding exhaust gases containing impurities into and through a bed-like structure (3, 3') containing a filler material and arranged inside the exhaust gas scrubber and being, in an upright use position of the exhaust gas scrubber, where the flow direction of the exhaust gases is upwards, from below supported by a support grate (14, 14') having apertures, the exhaust gas scrubber comprising feed devices (5, 5') for feeding scrubbing water into the bed-like structure in a direction different from a flow direction (A, A') of exhaust gases in the bed-like structure in order to reduce impurities in the exhaust gases such that the exhaust gases exit, cleaned, the bed-like structure and a discharge channel (4, 4') of the exhaust gas scrubber and the exhaust gas scrubber comprising a discharge outlet (13a, 13a') located in a bottom part of the exhaust gas scrubber and provided for discharging the scrubbing water containing impurities of the exhaust gases, i.e. effluent, from the exhaust gas scrubber, characterized in that the bottom part of the exhaust gas scrubber (1, 1') is provided with a filter (12, 12') located, in the upright use position of the exhaust gas scrubber (1, 1'), under the support grate (14, 14'), at a distance from the support grate (14, 14'), the filter (12, 12') having apertures (60, 60') having a size smaller than the size of the apertures in the grate (14, 14') to prevent the filler material from entering the discharge outlet (13a, 13a').
An air guide structure of a vehicle in which a duct for introducing outdoor air into an air cooling device of an engine includes an upper duct positioned in a radiator grille and a lower duct positioned in a bumper grille, the air guide structure characterized by comprising a variable screen (33',33") positioned between the upper duct and the lower duct and formed to have a shape or a position changed by a pressure difference generated from a difference in flow rate between upper flow and lower flow introduced through the upper duct and the lower duct, respectively, wherein the variable screen (33',33") is disposed on a duct wall surface between the upper duct and the lower duct. a variable screen (33',33") positioned between the upper duct and the lower duct and formed to have a shape or a position changed by a pressure difference generated from a difference in flow rate between upper flow and lower flow introduced through the upper duct and the lower duct, respectively, wherein the variable screen (33',33") is disposed on a duct wall surface between the upper duct and the lower duct.
An exhaust purification device of an internal combustion engine comprising a catalyst in which SO x contained in an exhaust gas is trapped and stored in an engine exhaust passage, characterized by a SO x sensor having a sensor part trapping SO x contained in the exhaust gas and being able to detect an amount of SO x trapped at the sensor part from a change in a physical property of the sensor part, being arranged in the engine exhaust passage upstream of the catalyst, and by a deviation correcting means configured to correct a deviation of an estimated value of a stored amount of SO x arising due to a difference in a SO x trapping rate of the sensor part and a SO x trapping rate of the catalyst, when estimating the amount of SO x stored in the catalyst from the amount of SO x trapped at the sensor part.
Process for the coating of objects, which are polymer particles, comprising - contacting the objects with a composition comprising an additive, a film-forming binder and a distributing agent, at a temperature below the softening temperature Tp of the objects and at a temperature at which the binder can form a film, - forming and consolidating an additive-containing layer of binder on the surface of the objects, the objects being kept in mutual motion while they are being contacted with the composition and while the additive-containing layer of binder is being formed and consolidated at least by removing the distributing agent, which process is carried out in a container bounded by walls, wherein the temperature of the walls is so much lower than the application temperature that formation of a film of the binder on the walls is prevented, and wherein the temperature of the walls is lower than the dew point of the distributing agent during application and consolidation. - contacting the objects with a composition comprising an additive, a film-forming binder and a distributing agent, at a temperature below the softening temperature Tp of the objects and at a temperature at which the binder can form a film, - forming and consolidating an additive-containing layer of binder on the surface of the objects, the objects being kept in mutual motion while they are being contacted with the composition and while the additive-containing layer of binder is being formed and consolidated at least by removing the distributing agent, which process is carried out in a container bounded by walls, wherein the temperature of the walls is so much lower than the application temperature that formation of a film of the binder on the walls is prevented, and wherein the temperature of the walls is lower than the dew point of the distributing agent during application and consolidation.
A rare earth permanent magnet in the form of a sintered magnet body having an alloy composition R a 1 R b 2 T c A d F e O f M g wherein R 1 is at least one element selected from rare earth elements, Sc and Y, but not including Tb or Dy, R is one or both of Tb and Dy, T is one or both of iron and cobalt, A is one or both of boron and carbon, F is fluorine, 0 is oxygen, and M is at least one element selected from Al, Cu, Zn, In, Si, P, S, Ti, V, Cr, Mn, Ni, Ga, Ge, Zr, Nb, Mo, Pd, Ag, Cd, Sn, Sb, Hf, Ta, and W, and indices a to g indicating atom percents of the corresponding elements in the alloy, have values satisfying: 10 ≤ a+b ≤ 15, 3 ≤ d ≤ 15, 0.01 ≤ e ≤ 4, 0.04 ≤ f ≤ 4, ≤ g ≤ 11, the balance being c, said magnet body having a center and a surface, characterised in that the rare earth permanent magnet being obtainable by absorption of fluoride of Tb and/or Dy through the surface of a sintered magnet body prepared from a mother alloy containing Nd, and Pr or Dy, wherein the sintered magnet body is prepared by machining a sintered block to a predetermined shape, disposing a powder containing a fluoride of Tb and/or Dy on the surface of the shaped block, and heat treating the shaped block with the fluoride powder in a vacuum or in an atmosphere of inert gas such as Ar or He at a temperature of not higher than the sintering temperature so that constituent elements F and R are distributed such that their concentration increases on average from the center toward the surface of the magnet body, grain boundaries surround primary phase grains of (R 1,R 2) 2 T 14 A tetragonal system within the sintered magnet body, the R 2 concentration R 2 /(R 1 +R 2) contained in the grain boundaries is on average higher than the R 2 concentration R 2 /(R 1 +R 2) contained in the primary phase grains, and the oxyfluoride of (R 1,R 2) is present at grain boundaries in a grain boundary region that extends from the magnet body surface to a depth of at least 20 μm.