mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaning composition comprising: (a) C 8 and/or C 10 dimethyl alkyl amide solvent; (b) an anionic surfactant, (c) a cosolvent, wherein said cosolvent is glycol ether, (d) a neutralizing agent in an amount sufficient to neutralize the anionic surfactant, wherein said a neutralizing agent is an alkaline metal salt, an amine, or a mixture thereof, and (e) water, wherein said composition is essentially free of d-limonene. (a) C 8 and/or C 10 dimethyl alkyl amide solvent; (b) an anionic surfactant, (c) a cosolvent, wherein said cosolvent is glycol ether, (d) a neutralizing agent in an amount sufficient to neutralize the anionic surfactant, wherein said a neutralizing agent is an alkaline metal salt, an amine, or a mixture thereof, and (e) water,
A composition for use in a method of treating Leber congenital amaurosis (LCA) in an individual comprising: a) a nucleic acid encoding an engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)- CRISPR associated (Cas) (CRISPR-Cas) system comprising a first guide RNA and a second guide RNA wherein the first guide RNA and the second guide RNA hybridize to opposite strands of target DNA sequences flanking an intronic mutation in a CEP290 gene; and b) a Cas expression cassette comprising: i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; wherein the Cas protein is expressed from the Cas expression cassette; wherein the Cas protein cleaves the target DNA sequences flanking the mutation, thereby excising a portion of target DNA comprising the mutation; and wherein the Cas protein cleaves the Cas expression cassette at the first guide RNA target site, thereby reducing expression of the Cas protein, as compared to expression of the Cas protein prior to cleavage of the Cas expression cassette. a) a nucleic acid encoding an engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)- CRISPR associated (Cas) (CRISPR-Cas) system comprising a first guide RNA and a second guide RNA wherein the first guide RNA and the second guide RNA hybridize to opposite strands of target DNA sequences flanking an intronic mutation in a CEP290 gene; and b) a Cas expression cassette comprising: i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; wherein the Cas protein is expressed from the Cas expression cassette; wherein the Cas protein cleaves the target DNA sequences flanking the mutation, thereby excising a portion of target DNA comprising the mutation; and wherein the Cas protein cleaves the Cas expression cassette at the first guide RNA target site, thereby reducing expression of the Cas protein, as compared to expression of the Cas protein prior to cleavage of the Cas expression cassette.
A bow hold training device for a bow stick of a bowed stringed instrument , the bow hold training device comprising: a fingers stabilizer comprising: a body having an axis that is parallel to a longitudinal axis of a bow stick shaft ; a thumb opening in the body for receiving at least a portion of a thumb and positioning an end of the thumb at an approximate intersection of a bow stick frog and the bow stick shaft ; and a finger separator for positioning an index finger and a middle finger on the bow stick by separating the index and middle fingers from one another, characterised in that the fingers stabilizer includes a nester extending from the body and configured for nesting within a recess of the bow stick frog to position the fingers stabilizer on the bow stick . a body having an axis that is parallel to a longitudinal axis of a bow stick shaft ; a thumb opening in the body for receiving at least a portion of a thumb and positioning an end of the thumb at an approximate intersection of a bow stick frog and the bow stick shaft ; and a finger separator for positioning an index finger and a middle finger on the bow stick by separating the index and middle fingers from one another,
Rotorcraft lighting equipment (2a-2d, 2a', 2a", 3), comprising: a plurality of lighting devices (2a-2d, 2a', 2a") configured to be mounted to an exterior of a rotorcraft , wherein each of the lighting devices (2a-2d, 2a', 2a") comprises a plurality of individually controllable lighting modules which are configured for emitting light into different spatial directions, allowing to generate different light distributions of the light emitted by the pluralities of lighting modules of the of the plurality of lighting devices (2a-2d, 2a', 2a"); and a lighting control device configured for individually controlling the operation of the pluralities of lighting modules of the plurality of lighting devices (2a-2d, 2a', 2a"), depending on the respective spatial directions, for generating a desired light distribution, which is one of the different light distributions, of the light emitted by the pluralites of lighting modules . a plurality of lighting devices (2a-2d, 2a', 2a") configured to be mounted to an exterior of a rotorcraft , wherein each of the lighting devices (2a-2d, 2a', 2a") comprises a plurality of individually controllable lighting modules which are configured for emitting light into different spatial directions, allowing to generate different light distributions of the light emitted by the pluralities of lighting modules of the of the plurality of lighting devices (2a-2d, 2a', 2a"); and a lighting control device configured for individually controlling the operation of the pluralities of lighting modules of the plurality of lighting devices (2a-2d, 2a', 2a"), depending on the respective spatial directions, for generating a desired light distribution, which is one of the different light distributions, of the light emitted by the pluralites of lighting modules .
A method for manufacturing a radiation detector which comprises: a first electrode (10A-10F); a second electrode (20A-20F); and a thallium bromide crystalline body provided between the first electrode (10A-10F) and the second electrode (20A-20F), the method comprising: a first step of cutting a thallium bromide crystalline wafer to obtain the thallium bromide crystalline body ; a second step of obtaining an alloy of metallic thallium and one or more other metals different from the metallic thallium by heating the metallic thallium and the one or other metals, wherein the alloy of metallic thallium and the one or more other metals different from the metallic thallium as raw materials are put in a tungsten boat, the tungsten boat is heated in a vacuum chamber a pressure therein is reduced to 10 -3 Pa or lower; and a third step of forming an alloy layer on an electrode installation surface of the thallium bromide crystalline body by vapor deposition using the alloy obtained in the second step as an evaporation source, the electrode installation surface being a surface to be provided with the first electrode (10A-10F) or the second electrode (20A-20F). a first step of cutting a thallium bromide crystalline wafer to obtain the thallium bromide crystalline body ; a second step of obtaining an alloy of metallic thallium and one or more other metals different from the metallic thallium by heating the metallic thallium and the one or other metals, wherein the alloy of metallic thallium and the one or more other metals different from the metallic thallium as raw materials are put in a tungsten boat, the tungsten boat is heated in a vacuum chamber a pressure therein is reduced to 10 -3 Pa or lower; and a third step of forming an alloy layer on an electrode installation surface of the thallium bromide crystalline body by vapor deposition using the alloy obtained in the second step as an evaporation source, the electrode installation surface being a surface to be provided with the first electrode (10A-10F) or the second electrode (20A-20F).
A method for service data verification implemented at a service system, the method comprising: determining (S100) service data that is to be verified; obtaining (S100), from stored blockchain data, blockchain copy data associated with the service data that is to be verified, wherein the blockchain copy data includes data information that is generated based on second fingerprint data of service data to be processed and that is stored in a blockchain, wherein the second fingerprint data is generated for key element data extracted from the service data to be processed by using a predetermined method, wherein the blockchain copy data includes fingerprint data stored in a blockchain copy data of a previous adjacent node; calculating (S200), by using the predetermined method, first fingerprint data of the service data that is to be verified; obtaining (S200) the second fingerprint data from the blockchain copy data that is corresponding to the service data that is to be verified; determine (S300), through comparison, whether the first fingerprint data is the same as the second fingerprint data; and determine (S300) that the service data that is to be verified is not modified if the first fingerprint data is the same as the second fingerprint data. determining (S100) service data that is to be verified; obtaining (S100), from stored blockchain data, blockchain copy data associated with the service data that is to be verified, wherein the blockchain copy data includes data information that is generated based on second fingerprint data of service data to be processed and that is stored in a blockchain, wherein the second fingerprint data is generated for key element data extracted from the service data to be processed by using a predetermined method, wherein the blockchain copy data includes fingerprint data stored in a blockchain copy data of a previous adjacent node; calculating (S200), by using the predetermined method, first fingerprint data of the service data that is to be verified; obtaining (S200) the second fingerprint data from the blockchain copy data that is corresponding to the service data that is to be verified; determine (S300), through comparison, whether the first fingerprint data is the same as the second fingerprint data; and determine (S300) that the service data that is to be verified is not modified if the first fingerprint data is the same as the second fingerprint data.
Assembly of a first bicycle component and a second bicycle component , in which these bicycle components are mutually connectable and the first bicycle component comprises, to that end, a track with two elongate rails , in which the second bicycle component is connectable to the track and is slidable along this track, wherein said two rails extend opposite one another in a longitudinal direction and extend substantially parallel to one another at a distance from one another that is measured in a width direction perpendicular to this longitudinal direction, and in which the second bicycle component comprises a deforming element that is designed to extend between the rails or around both rails in a connected state of the two bicycle components , characterized in that , in the connected state of the two bicycle components , the deforming element is rotatable around an axis (A) that extends vertically with respect to the track and substantially perpendicular to the plane that extends in the width direction and the tangent to the longitudinal direction at said axis (A), between at least two states, namely a first state in which the deforming element is slidable along the track the rails are in a base position and so the second bicycle component is slidably connected to the first bicycle component along the track, and a second state in which the deforming element is designed to act on at least one of said two rails so that this rail is locally deformed with respect to the base position and sliding of the deforming element along the track is prevented and so the second bicycle component is connected to the first bicycle component in a fixed position.
A manufacturing method for a secondary battery electrode, comprising: a process of preparing a current collector on which a first active material layer comprising a first inclined portion and a first protruding portion is formed on one surface thereof; a process of transferring the current collector in one direction; and a process of forming a second active material layer comprising a second inclined portion and a second protruding portion by applying a second active material on the other surface of the current collector, wherein in the process of forming the second active material layer , the second protruding portion is controlled in position on the second active material layer so as to be formed on a position that is not directly opposite to the first incline portion with respect to the current collector , the second protruding portion is spaced at a predetermined distance from the second inclined portion , and the second protruding portion is controlled in position by regulating an application pressure of the second active material layer , or the second protruding portion is controlled in position by regulating a transfer speed of the current collector . a process of preparing a current collector on which a first active material layer comprising a first inclined portion and a first protruding portion is formed on one surface thereof; a process of transferring the current collector in one direction; and a process of forming a second active material layer comprising a second inclined portion and a second protruding portion by applying a second active material on the other surface of the current collector, wherein in the process of forming the second active material layer , the second protruding portion is controlled in position on the second active material layer so as to be formed on a position that is not directly opposite to the first incline portion with respect to the current collector , the second protruding portion is spaced at a predetermined distance from the second inclined portion , and the second protruding portion is controlled in position by regulating an application pressure of the second active material layer , or the second protruding portion is controlled in position by regulating a transfer speed of the current collector .
A light source module, comprising a first light emitting body and a second light emitting body; wherein the light the light source module is characterized in that the first light emitting body is conforming to a condition in the CIE 1931 color coordinate system that an abscissa X is in a range of 0.280 - 0.310, and an ordinate Y is in a range of 0.284 - 0.314; and the second light emitting body is conforming to a condition in the CIE 1931 color coordinate system that an abscissa X is in a range of 0.331 - 0.361, and an ordinate Y is in a range of 0.331 - 0.361 characterized in that the first light emitting body is configured to emit light rays having a first wave peak with a wavelength in a range of 435 - 465 nm, a second wave peak with a wavelength in a range of 525 - 555 nm, and a third wave peak with a wavelength in a range of 620 - 650 nm, a spectral intensity of the second wave peak being 25 - 45% of a spectral intensity of the first wave peak, and a spectral intensity of the third wave peak being 20 - 40% of the spectral intensity of the first wave peak, and in that the second light emitting body is configured to emit light rays having a first wave peak with a wavelength in a range of 435 - 465 nm, a second wave peak with a wavelength in a range of 525 555 nm, and a third wave peak with a wavelength in a range of 620 - 650 nm, a spectral intensity of the second wave peak being 45 - 65% of a spectral intensity of the first wave peak, and a spectral intensity of the third wave peak being 40 - 60% of the spectral intensity of the first wave peak. the first light emitting body is conforming to a condition in the CIE 1931 color coordinate system that an abscissa X is in a range of 0.280 - 0.310, and an ordinate Y is in a range of 0.284 - 0.314; and the second light emitting body is conforming to a condition in the CIE 1931 color coordinate system that an abscissa X is in a range of 0.331 - 0.361, and an ordinate Y is in a range of 0.331 - 0.361 characterized in that the first light emitting body is configured to emit light rays having a first wave peak with a wavelength in a range of 435 - 465 nm, a second wave peak with a wavelength in a range of 525 - 555 nm, and a third wave peak with a wavelength in a range of 620 - 650 nm, a spectral intensity of the second wave peak being 25 - 45% of a spectral intensity of the first wave peak, and a spectral intensity of the third wave peak being 20 - 40% of the spectral intensity of the first wave peak, and in that the second light emitting body is configured to emit light rays having a first wave peak with a wavelength in a range of 435 - 465 nm, a second wave peak with a wavelength in a range of 525 555 nm, and a third wave peak with a wavelength in a range of 620 - 650 nm, a spectral intensity of the second wave peak being 45 - 65% of a spectral intensity of the first wave peak, and a spectral intensity of the third wave peak being 40 - 60% of the spectral intensity of the first wave peak.
A double-sided display device, comprising: a housing , comprising a first housing and a second housing slidingly connected with the first housing ; a first flexible screen having a first display surface facing one side, one end of the first flexible screen being connected in the first housing and the other end being wound in the second housing ; a second flexible screen arranged opposite to the first flexible screen and having a second display surface facing the other side, characterized by one end of the second flexible screen being fixed in the second housing , and the other end being wound in the first housing ; and by a flexible screen drive part , wherein the flexible screen drive part drives winding parts of the first flexible screen and the second flexible screen to wind when the second housing slides relative to the first housing , so as to change a display area. a housing , comprising a first housing and a second housing slidingly connected with the first housing ; a first flexible screen having a first display surface facing one side, one end of the first flexible screen being connected in the first housing and the other end being wound in the second housing ; a second flexible screen arranged opposite to the first flexible screen and having a second display surface facing the other side, characterized by one end of the second flexible screen being fixed in the second housing , and the other end being wound in the first housing ; and by a flexible screen drive part , wherein the flexible screen drive part drives winding parts of the first flexible screen and the second flexible screen to wind when the second housing slides relative to the first housing , so as to change a display area.
A pharmaceutically acceptable salt of 4-[2-(4-amino-piperidin-1-yl)-5-(3-fluoro-4-methoxy-phenyl)-1-methyl-6-oxo-1,6-dihydro-pyrimidin-4-yl]-2-fluorobenzonitrile, wherein the pharmaceutically acceptable salt is in crystalline form.
- A dishwasher comprising a tub ; a sump that is disposed at the lower part of the tub and wherein the washing water is collected; a filter that is disposed in the sump ; a circulation pump that provides the delivery of the washing water in the sump into the washing environment in the tub ; a lower spray arm ; an upper spray arm ; a multiport valve that has a first outlet that provides the delivery of the washing water to the lower spray arm and a second outlet that provides the delivery of the same to the upper spray arm ; a heat pump system ; a compressor , a condenser receptacle , a condenser ; an evaporator ; a condenser washing line that directs clean water filled into the sump to the condenser receptacle , that returns the water leaving the condenser receptacle with the pressure applied by the circulation pump back to the sump by means of a third outlet on the multiport valve and a bypass pipe such that the condenser is washed with the continuous cycle of the water between the sump and the condenser receptacle ; and a control unit being configured for activating the condenser washing line by opening the third outlet of the multiport valve and closing the first outlet and the second outlet ; characterized by the control unit being configured to increase the speed of circulation pump with respect to the normal washing process when the condenser washing line is activated and activate the condenser washing line periodically or when the level of dirtiness of the condenser is detected to increase, after the main washing process or at the beginning of the drying step in the dishwasher .
A process for converting a carbonaceous material to a Fischer-Tropsch product, the carbonaceous material being selected from biomass, solid-waste, or a mixture thereof, the process comprising: (A) gasifying the carbonaceous material in a gasifier at a temperature of at least 700°C to form synthesis gas, the synthesis gas flowing out of the gasifier comprising CO, H 2 , water, CO 2 , particulate solids, and contaminants; removing water, CO 2 , particulate solids and contaminants from the synthesis gas; cooling the synthesis gas in one or more heat exchangers prior to step (B); adding an additional amount of H 2 to the synthesis gas prior to step (B) to give synthesis gas having a molar ratio of H 2 to CO in the range from 1.5 to 2.5; and (B) flowing the synthesis gas in a microchannel reactor in contact with a Fischer-Tropsch catalyst to convert the synthesis gas to the Fischer-Tropsch product. (A) gasifying the carbonaceous material in a gasifier at a temperature of at least 700°C to form synthesis gas, the synthesis gas flowing out of the gasifier comprising CO, H 2 , water, CO 2 , particulate solids, and contaminants; removing water, CO 2 , particulate solids and contaminants from the synthesis gas; cooling the synthesis gas in one or more heat exchangers prior to step (B); adding an additional amount of H 2 to the synthesis gas prior to step (B) to give synthesis gas having a molar ratio of H 2 to CO in the range from 1.5 to 2.5; and removing water, CO 2 , particulate solids and contaminants from the synthesis gas; cooling the synthesis gas in one or more heat exchangers prior to step (B); adding an additional amount of H 2 to the synthesis gas prior to step (B) to give synthesis gas having a molar ratio of H 2 to CO in the range from 1.5 to 2.5; and (B) flowing the synthesis gas in a microchannel reactor in contact with a Fischer-Tropsch catalyst to convert the synthesis gas to the Fischer-Tropsch product.
Security element , preferably in the form of a foil strip , foil thread , or foil patch , with a machine-readable code, characterized in that the machine-readable code is a printed magnetic coding which is produced using at least two opaque magnetic printing inks (M1, M2, M3), each containing different magnetic pigments, which differ in terms of their coloring and/or magnetic properties and are inserted or applied in defined code areas (C1, C2, C3) of the security element , wherein the magnetic printing inks (M1, M2, M3) inserted or applied in the code areas (C1, C2, C3) provide at least part of a visual security feature visible when viewing the security element in plan-view. the machine-readable code is a printed magnetic coding which is produced using at least two opaque magnetic printing inks (M1, M2, M3), each containing different magnetic pigments, which differ in terms of their coloring and/or magnetic properties and are inserted or applied in defined code areas (C1, C2, C3) of the security element , wherein the magnetic printing inks (M1, M2, M3) inserted or applied in the code areas (C1, C2, C3) provide at least part of a visual security feature visible when viewing the security element in plan-view.