mhurhangee/ep-ind-claims huggingface dataset:
A member for electrophotography comprising: an electro-conductive base substance; and at least one electro-conductive resin layer, wherein the electro-conductive resin layer of an outermost layer contains urethane resin, and the urethane resin has a structure of a silicone graft fluororesin and a structure represented by Formula shown below, wherein, in Formula, A1 represents at least one structure selected from the group consisting of,, and shown below; the structure containing a structure represented by Formula (A101a) shown below and a structure represented by either or both of Formula (A101b) and Formula (A101c) shown below; the structure containing a constituent unit represented by Formula (A102a) shown below and a constituent unit represented by either or both of Formula (A102b) and Formula (A102c) shown below; wherein, in Formulae (A102a) to (A102c), R1 and R2 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less; the structure represented by Formula (A103a) shown below; wherein, in Formula (A103a), R3 and R4 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less and m represents an integer of 7 or more; and the structure represented by Formula (A104a) shown below, wherein, in Formula (A104a), R5 and R6 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less and p represents an integer of 6 or more. an electro-conductive base substance; and at least one electro-conductive resin layer, wherein the electro-conductive resin layer of an outermost layer contains urethane resin, and the urethane resin has a structure of a silicone graft fluororesin and a structure represented by Formula shown below, wherein, in Formula, A1 represents at least one structure selected from the group consisting of,, and shown below; the structure containing a structure represented by Formula (A101a) shown below and a structure represented by either or both of Formula (A101b) and Formula (A101c) shown below; the structure containing a constituent unit represented by Formula (A102a) shown below and a constituent unit represented by either or both of Formula (A102b) and Formula (A102c) shown below; wherein, in Formulae (A102a) to (A102c), R1 and R2 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less; the structure represented by Formula (A103a) shown below; wherein, in Formula (A103a), R3 and R4 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less and m represents an integer of 7 or more; and the structure represented by Formula (A104a) shown below, wherein, in Formula (A104a), R5 and R6 each independently represent a hydrogen atom or an alkyl group having carbon atoms of 1 or more and 4 or less and p represents an integer of 6 or more.
A diving system for use by a diver, comprising: (a) a pressure vessel defining a breathing mixture chamber and a fluid chamber, each defining a volume, wherein the two chambers are moveably separate from each other, where the volumes of the two chambers are correlated such that an increase in the volume of one chamber correlates with a decrease in the volume of the other chamber, and wherein the breathing mixture chamber is configured to connect to a gas communication system for a diver; (b) a fluid transfer system in fluid communication with the fluid chamber and with an environment external to the fluid chamber; (c) a control system responsive to sensors, the control system being configured to control the fluid transfer system to communicate fluid between the ambient environment and the fluid chamber. (a) a pressure vessel defining a breathing mixture chamber and a fluid chamber, each defining a volume, wherein the two chambers are moveably separate from each other, where the volumes of the two chambers are correlated such that an increase in the volume of one chamber correlates with a decrease in the volume of the other chamber, and wherein the breathing mixture chamber is configured to connect to a gas communication system for a diver; (b) a fluid transfer system in fluid communication with the fluid chamber and with an environment external to the fluid chamber; (c) a control system responsive to sensors, the control system being configured to control the fluid transfer system to communicate fluid between the ambient environment and the fluid chamber.
An optical film comprising: a transparent base; an anti-static primer layer provided on at least one surface of the transparent base, and including a binder resin including a sulfonic acid polyester acryl-based resin, and an anti-static material; and a surface treatment coating layer provided on the anti-static primer layer. a transparent base; an anti-static primer layer provided on at least one surface of the transparent base, and including a binder resin including a sulfonic acid polyester acryl-based resin, and an anti-static material; and a surface treatment coating layer provided on the anti-static primer layer.
A mineral, hydraulic binder, in particular for the production of concrete or mortars or cement suspensions based on at least one cement, wherein the cement comprises clinker phases such as in particular C 3 S, C 2 S, C 3 A, C 4 AF and optionally secondary constituents, which form hydrate phases that harden with water into hardened cement paste, and wherein the cement has a rest period of several hours after mixing with water, in which period no significant hardening reactions take place, characterised by - at least one finely divided SiO 2 component in the form of a pyrogenic silica with primary particle sizes of between 0.007 and 0.04 μm and SiO 2 contents of between 96 and 100 wt.%; - at least one finely divided CaO component in the form of - calcium oxide, which comprises 90 to 99 wt.% CaO and particle sizes of between 0.5 and 100 μm and/or - contains hydrated lime with CaO contents of between 60 and 75 wt.% and particle sizes of between 0.7 and 100 μm; - wherein the at least one SiO 2 component and the at least one CaO component form calcium silicate hydrate phases with mixing water which harden during the rest period by virtue of a pozzolanic reaction and create early strength. - at least one finely divided SiO 2 component in the form of a pyrogenic silica with primary particle sizes of between 0.007 and 0.04 μm and SiO 2 contents of between 96 and 100 wt.%; - at least one finely divided CaO component in the form of - calcium oxide, which comprises 90 to 99 wt.% CaO and particle sizes of between 0.5 and 100 μm and/or - contains hydrated lime with CaO contents of between 60 and 75 wt.% and particle sizes of between 0.7 and 100 μm; - wherein the at least one SiO 2 component and the at least one CaO component form calcium silicate hydrate phases with mixing water which harden during the rest period by virtue of a pozzolanic reaction and create early strength.
A conditioning system of an environment, comprising at least one adiabatic cooling system, at least one refrigeration cycle cooling system, and at least one free cooling system comprising at least one fan, said at least one adiabatic cooling system, said at least one refrigeration cycle cooling system, and said at least one free cooling system, being structurally integrated in a single unit in which said at least one adiabatic cooling system is positioned upstream of said at least one fan, said at least one adiabatic cooling system having at least one water nebulization chamber located in the lower pressure area of said single unit, characterized in that said single unit has an integrated control logic of said at least one adiabatic cooling system, said at least one refrigeration cycle cooling system, and said at least one free cooling system, and in that it has a first temperature sensor and a humidity sensor of the external air flowing into said nebulization chamber, a second temperature sensor of the air flowing out of said cooling chamber (23, 24), and a third temperature sensor of said environment, connected to said control logic of said single unit, wherein, as a function of the data received from said sensors (37, 38, 39, 40), said control logic activates only the free cooling system for the air flowing into the nebulization chamber having temperature not exceeding a first temperature threshold, the free cooling system and the adiabatic cooling system for the air flowing into the nebulization chamber having temperature exceeding said first temperature threshold and humidity not exceeding a first humidity threshold, and the free cooling system with the refrigeration cycle cooling system optionally in combination with the adiabatic cooling system for the air flowing into the nebulization chamber having temperature exceeding said first temperature threshold and humidity exceeding said first humidity threshold.
An immunoassay for detecting clozapine in a sample comprising providing a mixture of a) said sample, b) an antibody selectively reactive with clozapine and not substantially cross-reactive with N-desmethylclozapine and clozapine-N-oxide, and c) a conjugate of a carrier having either a reactive thiol or amino group with a compound of the formula: wherein B is: -(C=O)-, -(C=O)-NH-, -(C=O)-O-, -CH2-; Y is an organic spacing group; X is a terminal functional group capable of binding to a polyamine polymer; and p is an integer from 0 to 1; or salts thereof; causing the clozapine in the sample and said conjugate in said mixture to bind with said antibody and thereafter measuring the amount of said conjugate in said mixture which is bound or unbound to said antibody whereby the presence of clozapine in the sample can be determined. wherein B is: -(C=O)-, -(C=O)-NH-, -(C=O)-O-, -CH2-; Y is an organic spacing group; X is a terminal functional group capable of binding to a polyamine polymer; and p is an integer from 0 to 1;
A human host cell generated from fusion of a human embryonic kidney-derived cell and a human B-cell-derived cell in which an Epstein-Barr virus genome is integrated into chromosomes, wherein the human embryonic kidney-derived cell is a 293 cell and the human B-cell-derived cell is a Namalwa cell and wherein the human host cell i) constitutively expresses EBNA1 proteins; ii) does not express IgM proteins; iii) continuously generates glycosylation profiles similar to those of humans; and iv) expresses BALF1, but does not express BHRF1, wherein the human host cell is F2N78 deposited under KCTC Accession Number: KCTC 11309BP.
A system comprising: an array of tubular structures (106, 206) for a flowing fluid environment, the array comprising: at least one tubular internal structure at a center position of the array; at least eight tubular external structures (106A, 106B, 106C, 106D, 106F, 106G, 106H, 1061) forming a periphery of the array; and vortex induced vibration suppression devices (114, 220, 222, 614) on at least two of the tubular structures (106A, 106B, 106C, 106D, 106E, 106F, 106G, 106H, 1061), including vortex induced vibration suppression devices (114, 220, 222, 614) on at least two of the tubular external structures (106A, 106C), wherein the tubular structures are coupled to each other at a plurality of locations along a length of the tubular structures, wherein at least one end of the tubular structures is for being connected to a floating vessel, characterized in that at least two of the tubular external structures (106B, 106D) comprise no vortex induced vibration suppression devices, and in that the tubular external structures that have VIV suppression devices are substantially interspersed, interleaved, or otherwise staggered with the at least two of the tubular external structures that do not have VIV suppression devices coupled to them. at least one tubular internal structure at a center position of the array; at least eight tubular external structures (106A, 106B, 106C, 106D, 106F, 106G, 106H, 1061) forming a periphery of the array; and vortex induced vibration suppression devices (114, 220, 222, 614) on at least two of the tubular structures (106A, 106B, 106C, 106D, 106E, 106F, 106G, 106H, 1061), including vortex induced vibration suppression devices (114, 220, 222, 614) on at least two of the tubular external structures (106A, 106C), wherein the tubular structures are coupled to each other at a plurality of locations along a length of the tubular structures, wherein at least one end of the tubular structures is for being connected to a floating vessel, characterized in that at least two of the tubular external structures (106B, 106D) comprise no vortex induced vibration suppression devices, and in that the tubular external structures that have VIV suppression devices are substantially interspersed, interleaved, or otherwise staggered with the at least two of the tubular external structures that do not have VIV suppression devices coupled to them.
A retrieval apparatus for retrieving a bolt, the retrieval apparatus comprising: a guide member having an opening that vertically passes through the guide member; a first plate that has a first end portion and being pivotally connected with a plate via a connecting member; a second plate that has a second end portion and being pivotally connected with a plate via a connecting member, the first end portion and the second end portion being arranged facing each other so as to define an adjacent region on an upper side of the opening, wherein the first plate and the second plate are configured to, when the bolt is inserted from below the opening through the inside of the opening toward the adjacent region, abut against the bolt and pivot upwards about the respective connecting member (13a, 13b); and the first end portion and the second end portion are configured to abut against a side surface of the bolt and grip the bolt, wherein the first plate and the second plate are arranged such that a distance between the end portion and the end portion is less than a diameter of a bolt to be retrieved, and an upper surface of the guide member is configured to abut against lower surfaces of the first plate and the second plate. a guide member having an opening that vertically passes through the guide member; a first plate that has a first end portion and being pivotally connected with a plate via a connecting member; a second plate that has a second end portion and being pivotally connected with a plate via a connecting member, the first end portion and the second end portion being arranged facing each other so as to define an adjacent region on an upper side of the opening, wherein the first plate and the second plate are configured to, when the bolt is inserted from below the opening through the inside of the opening toward the adjacent region, abut against the bolt and pivot upwards about the respective connecting member (13a, 13b); and the first end portion and the second end portion are configured to abut against a side surface of the bolt and grip the bolt, wherein the first plate and the second plate are arranged such that a distance between the end portion and the end portion is less than a diameter of a bolt to be retrieved, and an upper surface of the guide member is configured to abut against lower surfaces of the first plate and the second plate.
A process for preparing a cyclic peri-succinoylacenaphthene and related 1,4-diketo compound of general formula where R 1, R 2, R 3, and R 4 are independently hydrogen, halogen, or -OR 6; in which R 6 is C1-C6 alkyl,, (C6-C10)aryl-(C1-C6)alkyl, in which the alkyl and/or aryl radicals can be substituted by C1-C6 alkoxy, or halogen, and X being a C2 alkylene or alkenyl group with possible substituents including alkyl groups, alkenyl groups, aralkyl groups or aralkenyl groups, comprising: a) contacting an acenaphthene compound of general formula where, R 1, R 2, R 3, and R 4 have the meanings already indicated, with a high boiling aprotic non-reactive solvent; b) adding cyclic acid anhydride of general formula to step (a) forming a mixture; where X being a C2 alkylene or alkenyl group with possible substituents including alkyl groups, alkenyl groups, aralkyl groups or aralkenyl groups, c) cooling the mixture to -15°C to ambient temperature and adding a Lewis acid to said mixture; and d) increasing the temperature to 80°C to 150°C for 5 to 20 hours with further addition of the Lewis acid; wherein peri positions of the acenaphthene compound is free to react with the cyclic acid anhydride. R 1, R 2, R 3, and R 4 are independently hydrogen, halogen, or -OR 6; in which R 6 is C1-C6 alkyl,, (C6-C10)aryl-(C1-C6)alkyl, in which the alkyl and/or aryl radicals can be substituted by C1-C6 alkoxy, or halogen, and X being a C2 alkylene or alkenyl group with possible substituents including alkyl groups, alkenyl groups, aralkyl groups or aralkenyl groups, comprising: a) contacting an acenaphthene compound of general formula where, R 1, R 2, R 3, and R 4 have the meanings already indicated, with a high boiling aprotic non-reactive solvent; b) adding cyclic acid anhydride of general formula to step (a) forming a mixture; where X being a C2 alkylene or alkenyl group with possible substituents including alkyl groups, alkenyl groups, aralkyl groups or aralkenyl groups, c) cooling the mixture to -15°C to ambient temperature and adding a Lewis acid to said mixture; and d) increasing the temperature to 80°C to 150°C for 5 to 20 hours with further addition of the Lewis acid; a) contacting an acenaphthene compound of general formula where, R 1, R 2, R 3, and R 4 have the meanings already indicated, with a high boiling aprotic non-reactive solvent; where, R 1, R 2, R 3, and R 4 have the meanings already indicated, with a high boiling aprotic non-reactive solvent; b) adding cyclic acid anhydride of general formula to step (a) forming a mixture; where X being a C2 alkylene or alkenyl group with possible substituents including alkyl groups, alkenyl groups, aralkyl groups or aralkenyl groups, c) cooling the mixture to -15°C to ambient temperature and adding a Lewis acid to said mixture; and d) increasing the temperature to 80°C to 150°C for 5 to 20 hours with further addition of the Lewis acid; wherein peri positions of the acenaphthene compound is free to react with the cyclic acid anhydride.
A downhole orientation sensing system for use in conjunction with a subterranean well, the sensing system comprising: a downhole instrument assembly positionable in the well, the instrument assembly comprising an atomic comagnetometer and an optical source (46, 48, 82) configured to transmit light to the atomic comagnetometer. a downhole instrument assembly positionable in the well, the instrument assembly comprising an atomic comagnetometer and an optical source (46, 48, 82) configured to transmit light to the atomic comagnetometer.
A cell-free assay device, comprising: a substrate comprising a conical channel comprising an aperture having a diameter of 10nm to 250nm and a binding agent in association with the channel; a component configured to detect an interaction between an analyte and the binding agent; a first volume and a second volume, wherein the first volume and/or the second volume are sealed; the channel separates the first volume and the second volume; a pressure control system configured to apply pressure across the aperture of the conical channel and maintain a pressure differential between the first volume and the second volume while assessing the interaction between the analyte and the binding agent, wherein the flux of the analyte to the binding agent and/or the speed of the analyte to and/or through the aperture is altered relative to the flux of the analyte to the binding agent and/or the speed of the analyte to and/or through the aperture without maintaining a pressure differential. a substrate comprising a conical channel comprising an aperture having a diameter of 10nm to 250nm and a binding agent in association with the channel; a component configured to detect an interaction between an analyte and the binding agent; a first volume and a second volume, wherein the first volume and/or the second volume are sealed; the channel separates the first volume and the second volume; a pressure control system configured to apply pressure across the aperture of the conical channel and maintain a pressure differential between the first volume and the second volume while assessing the interaction between the analyte and the binding agent, wherein the flux of the analyte to the binding agent and/or the speed of the analyte to and/or through the aperture is altered relative to the flux of the analyte to the binding agent and/or the speed of the analyte to and/or through the aperture without maintaining a pressure differential.
A washing machine comprising an outer tub and an inner tub, characterized in that the washing machine further comprises an air storage unit configured to store air therein; a compression unit configured to communicate with the air storage unit and the outer tub, and to compress the air in the air storage unit by compressing water from the outer tub of the washing machine into a compression tubing member to the air storage unit using a compression piston; a water spraying tube connected to the compression unit and a tub cover; and an opening and closing unit configured to open and close a flow path of the water spraying tube and cause water to be sprayed into the inner tub using compressed air from the air storage unit. an air storage unit configured to store air therein; a compression unit configured to communicate with the air storage unit and the outer tub, and to compress the air in the air storage unit by compressing water from the outer tub of the washing machine into a compression tubing member to the air storage unit using a compression piston; a water spraying tube connected to the compression unit and a tub cover; and an opening and closing unit configured to open and close a flow path of the water spraying tube and cause water to be sprayed into the inner tub using compressed air from the air storage unit.