mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous dispersion or coating formulation comprising: (a) 20 to 95 % by weight at least one resin binder selected from at least one member of the group consisting of a polymer latex, a polyurethane dispersion, and an alkyd emulsion, wherein 30 to 80 wt. % of the resin binder is resin solids, and 70 to 20 wt. % water, (b) up to 60% by weight of a pigment; (c) 0.01 to 5% by weight of at least one [(dimethylamino)alkyl]-imino-dialcohol neutralizing agent having the formula I: wherein R 1 is independently C2-C6 alkyl; R 2 is -(C m H 2m ), wherein each m is independently selected from an integer from 2 to 4, x is 1 to 10; R 3 is -(C n H 2n ), wherein each n is independently selected from an integer from 2 to 4, y is 1 to 10; wherein all weight percents are based on the total weight of the aqueous coating formulation, wherein the formulation has a pH of 7 to 11. (a) 20 to 95 % by weight at least one resin binder selected from at least one member of the group consisting of a polymer latex, a polyurethane dispersion, and an alkyd emulsion, wherein 30 to 80 wt. % of the resin binder is resin solids, and 70 to 20 wt. % water, (b) up to 60% by weight of a pigment; (c) 0.01 to 5% by weight of at least one [(dimethylamino)alkyl]-imino-dialcohol neutralizing agent having the formula I: wherein R 1 is independently C2-C6 alkyl; R 2 is -(C m H 2m ), wherein each m is independently selected from an integer from 2 to 4, x is 1 to 10; R 3 is -(C n H 2n ), wherein each n is independently selected from an integer from 2 to 4, y is 1 to 10; wherein all weight percents are based on the total weight of the aqueous coating formulation, wherein the formulation has a pH of 7 to 11. R 1 is independently C2-C6 alkyl; R 2 is -(C m H 2m ), wherein each m is independently selected from an integer from 2 to 4, x is 1 to 10; R 3 is -(C n H 2n ), wherein each n is independently selected from an integer from 2 to 4, y is 1 to 10; wherein all weight percents are based on the total weight of the aqueous coating formulation, wherein the formulation has a pH of 7 to 11.
A method of creating a biomarker profile, the method comprising the steps of: removing a sample of biofluid from a sample collection apparatus, wherein the sample is from a subject and is stored on the sample collection apparatus, the sample collection apparatus comprises cellulose paper on which the biofluid is placed to dry, and the cellulose paper has not been treated with any chemical stabilizers of nucleic acids; extracting nucleic acids from the sample; sequencing the extracted nucleic acids to generate sequence data; and analyzing the sequence data using a two-step analytical methodology to create the biomarker profile; wherein the nucleic acids are RNA, and optionally wherein the RNA is extracellular RNA; the two-step analytical methodology comprises: a) determining i) and ii) as: i) the coefficient of variance for an RNA transcript in the sample; and ii) the coefficient of variance of the RNA transcript in a reference sample; and b) removing the RNA transcript from the biomarker profile if i) is greater than ii); and the coefficient of variance for the RNA transcript in the sample and the coefficient of variance for the RNA transcript in the reference sample are determined with technical replicates that are biologically identical. removing a sample of biofluid from a sample collection apparatus, wherein the sample is from a subject and is stored on the sample collection apparatus, the sample collection apparatus comprises cellulose paper on which the biofluid is placed to dry, and the cellulose paper has not been treated with any chemical stabilizers of nucleic acids; extracting nucleic acids from the sample; sequencing the extracted nucleic acids to generate sequence data; and analyzing the sequence data using a two-step analytical methodology to create the biomarker profile; wherein the nucleic acids are RNA, and optionally wherein the RNA is extracellular RNA; the two-step analytical methodology comprises: a) determining i) and ii) as: i) the coefficient of variance for an RNA transcript in the sample; and ii) the coefficient of variance of the RNA transcript in a reference sample; and b) removing the RNA transcript from the biomarker profile if i) is greater than ii); and a) determining i) and ii) as: i) the coefficient of variance for an RNA transcript in the sample; and ii) the coefficient of variance of the RNA transcript in a reference sample; and i) the coefficient of variance for an RNA transcript in the sample; and ii) the coefficient of variance of the RNA transcript in a reference sample; and b) removing the RNA transcript from the biomarker profile if i) is greater than ii); and the coefficient of variance for the RNA transcript in the sample and the coefficient of variance for the RNA transcript in the reference sample are determined with technical replicates that are biologically identical.
A method of preparing a compound of formula : or a salt thereof, said method comprising reacting a compound of formula with a monomer compound of formula (d 1 ), wherein X 3 is -Cl; P 3 is H or an amine protecting group; and R 101 is (C 1 -C 3 )alkyl, pyridyl, or nitropyridyl.
An enclosure for a wearable acoustic monitoring device, the enclosure comprising: a hollow body portion defined by a sidewall and top wall; and a substantially planar base portion configured to interface with the hollow body portion thus forming a cavity therebetween, wherein, the base portion comprises a flat engagement surface, for engagement with a body surface, and an acoustic port through the flat engagement surface, for acoustic communication from the body surface to an acoustic sensor housed within the cavity, and, wherein, the acoustic port is located within a depression in, or elongate channel through, the flat engagement surface of the base portion such that the acoustic sensor is spaced apart from the body surface, in use. a hollow body portion defined by a sidewall and top wall; and a substantially planar base portion configured to interface with the hollow body portion thus forming a cavity therebetween, wherein, the base portion comprises a flat engagement surface, for engagement with a body surface, and an acoustic port through the flat engagement surface, for acoustic communication from the body surface to an acoustic sensor housed within the cavity, and, wherein, the acoustic port is located within a depression in, or elongate channel through, the flat engagement surface of the base portion such that the acoustic sensor is spaced apart from the body surface, in use.
A microcapsule comprising a microcapsule core and a microcapsule wall encapsulating the microcapsule core, wherein the microcapsule core contains an active material and the microcapsule wall contains, wherein the microcapsule wall contains by weight 35% to 90% of a first moiety derived from hydroxyethyl cellulose, 2% to 30% of a second moiety derived from a polyisocyanate, 1% to 50% of a third moiety derived from a polyphenol, and 0.5% to 20% of a fourth moiety derived from a multi-functional aldehyde, provided that the total amount of the first, second, third, and fourth moieties is equal to or less than 100%.
Abandonment plug for plug and abandonment of a well , the abandonment plug comprising: - a first end part being closable or closed, - a second end part being tubular and having a groove in an inner face , - an expandable metal sleeve arranged between the end parts, the end parts being more rigid than the expandable metal sleeve, and - a unit releasably connected to the second tubular end part, and where the unit is configured to be retracted from the well , the unit comprising: - at least one radially projectable fastening element , - a unit sleeve , and - a piston movable in the unit sleeve for, in a first position, forcing the radially projectable fastening element radially outwards in engagement with the groove and, in a second position, being offset in relation to the radially projectable fastening element, allowing the radially projectable fastening element to move radially inwards, characterized in that the abandonment plug comprises: - a first breakable element for maintaining the piston in the first position in relation to the unit sleeve until the breakable element breaks at a predetermined force. - a first end part being closable or closed, - a second end part being tubular and having a groove in an inner face , - an expandable metal sleeve arranged between the end parts, the end parts being more rigid than the expandable metal sleeve, and - a unit releasably connected to the second tubular end part, and where the unit is configured to be retracted from the well , the unit comprising: - at least one radially projectable fastening element , - a unit sleeve , and - at least one radially projectable fastening element , - a unit sleeve , and - a piston movable in the unit sleeve for, in a first position, forcing the radially projectable fastening element radially outwards in engagement with the groove and, in a second position, being offset in relation to the radially projectable fastening element, allowing the radially projectable fastening element to move radially inwards, characterized in that the abandonment plug comprises: - a first breakable element for maintaining the piston in the first position in relation to the unit sleeve until the breakable element breaks at a predetermined force.
A composite material with a core-shell structure for battery, wherein a core material comprises metallic copper or a copper-containing compound; a shell material comprises at least one of silicon dioxide and titanium dioxide; and wherein the core material has an the average particle size D50 of 0.01μm-5μm, optionally 0.1μm-3μm, more optionally 0.1μm-2μm, measured according to the methods as described in the description, and wherein the weight ratio of the core to the shell is from 10:1 to 20:1.
Tread profile of a vehicle tyre, in particular of a passenger car tyre, with profile elements which are separated from one another by way of grooves and are delimited radially to the outside by a radially outer surface , and with sipes which are configured in profile elements and are configured to extend along a first main direction of extent which extends in the radially outer surface , and along a second main direction of extent which extends radially inwards starting from the radially outer surface , and are delimited in each case in the radial direction R towards the inside by a sipe base , the sipe being configured, starting from the radially outer surface as far as a depth T 1 , in each case along its extent along the first main direction of extent at least in an extent region consisting of first extent sections and second extent sections which are arranged behind one another in an alternating sequence, the sipe being configured with a sectional contour in the sectional planes which are formed perpendicularly with respect to its extent in the radially outer surface , which sectional contour is substantially rectilinear in the first extent section , in each case starting from the radially outer surface as far as the depth T 1 , the sipes being configured with a greatest axial directional component along the first main direction of extent, the sipe being oriented in its first extent sections along its extent along the first main direction of extent with a greatest directional component of its extent in the circumferential direction U, and being oriented in its second extent sections along its extent along the first main direction of extent with a greatest directional component of its extent in the axial direction A, and the sipe being configured with a sectional contour in the sectional planes which are formed perpendicularly with respect to its extent in the radially outer surface , which sectional contour is configured in the second extent section with at least one first radial extent section , in which the sectional contour is oriented substantially rectilinearly in the second main direction of extent, characterized in that the sectional contour of each of the second extent sections of the sipes is configured with at least one second radial extent section in all the sectional planes which are formed perpendicularly with respect to its extent in the radially outer surface, in which second radial extent section the sectional contour has a directional component which is oriented in the second main direction of extent and a directional component which is oriented perpendicularly with respect thereto and is configured with an alternating orientation along the extent of the sectional contour along the second main direction of extent.
Flat steel product for a subsequent austenitizing annealing treatment in a furnace at a furnace temperature in the range of 880 to 950°C, comprising an aluminum-based coating, the coating comprising an aluminum-based coat which is applied in a hot-dipping process and has 1.8 to 15 mass percent silicon, advantageously 5 to 13 mass percent silicon, even more advantageously 8 to 11 mass percent silicon, characterized in that the coat - for determining an absorption degree of the surface of the coating for thermal radiation, which is relative to the aforementioned range of the furnace temperature during the austenitizing annealing treatment, in a range of from 0.35 to 0.95, in particular from 0.40 to 0.80, advantageously from 0.45 to 0.70 - starting from the surface within the first 0.05 μm, has an average silicon content between 25 and 70 mass percent.
A partial ceramic casting mold comprising: a first core portion and a first shell portion both made of a liquid ceramic photopolymer, the first core portion and first shell portion adapted to interface with at least a second core portion and second shell portion both made of a liquid ceramic photopolymer to form a ceramic casting mold comprising a cavity between the first and second core portions and the first and second shell portions , the cavity adapted to define a cast component upon casting and removal of the ceramic casting mold , and the first core portion or first shell portion comprises at least one standoff feature that protrudes into the cavity between the first core portion and first shell portion that is adapted to provide a minimum spacing between the first core portion and first shell portion ; wherein the at least one standoff feature is a bumper or a pin. a first core portion and a first shell portion both made of a liquid ceramic photopolymer, the first core portion and first shell portion adapted to interface with at least a second core portion and second shell portion both made of a liquid ceramic photopolymer to form a ceramic casting mold comprising a cavity between the first and second core portions and the first and second shell portions , the cavity adapted to define a cast component upon casting and removal of the ceramic casting mold , and the first core portion or first shell portion comprises at least one standoff feature that protrudes into the cavity between the first core portion and first shell portion that is adapted to provide a minimum spacing between the first core portion and first shell portion ; wherein the at least one standoff feature is a bumper or a pin.
Accumulator comprising: a closed-bottomed cylindrical tank with an open upper face hermetically closed by a cap member and having an inlet port and an outlet port arranged side by side in the cap member , an outlet pipe that is coupled at one end to the outlet port and is open at another end inside the tank ; and a desiccant housing portion adapted to house desiccants, wherein the desiccant housing portion is securely sandwiched between the tank and the outlet pipe and is fixedly disposed below the inlet port and opposite the inlet port , and is adapted to receive from an upper face side of the desiccant housing portion a refrigerant that has flowed into the tank from the inlet port and then allow the refrigerant to flow downward to below the desiccant housing portion , characterized in that the outlet pipe has a double-pipe structure of an inner pipe and an outer pipe , the inner pipe being adapted to be coupled to the outlet port and extend downward inside the tank , and the outer pipe being arranged on the outer periphery of the inner pipe , plate-like ribs are provided on at least one of the inner pipe and the outer pipe to provide a predetermined gap between the inner pipe and the outer pipe , the outlet port has a stepped inner shape, and a cylindrical portion , which forms the lower portion of the outlet port and protrudes from the lower face of the cap member , and the desiccant housing portion is securely sandwiched between the ribs and the cylindrical portion . a closed-bottomed cylindrical tank with an open upper face hermetically closed by a cap member and having an inlet port and an outlet port arranged side by side in the cap member , an outlet pipe that is coupled at one end to the outlet port and is open at another end inside the tank ; and a desiccant housing portion adapted to house desiccants, wherein the desiccant housing portion is securely sandwiched between the tank and the outlet pipe and is fixedly disposed below the inlet port and opposite the inlet port , and is adapted to receive from an upper face side of the desiccant housing portion a refrigerant that has flowed into the tank from the inlet port and then allow the refrigerant to flow downward to below the desiccant housing portion , characterized in that the outlet pipe has a double-pipe structure of an inner pipe and an outer pipe , the inner pipe being adapted to be coupled to the outlet port and extend downward inside the tank , and the outer pipe being arranged on the outer periphery of the inner pipe , plate-like ribs are provided on at least one of the inner pipe and the outer pipe to provide a predetermined gap between the inner pipe and the outer pipe , the outlet port has a stepped inner shape, and a cylindrical portion , which forms the lower portion of the outlet port and protrudes from the lower face of the cap member , and the desiccant housing portion is securely sandwiched between the ribs and the cylindrical portion .
An interference suppression method, comprising: determining an autocorrelation inverse matrix of a cell common signal according to uplink sampling antenna data ; performing multipath matching for a specified user according to the uplink sampling antenna data ; acquiring an autocorrelation inverse matrix of a specified user signal from the autocorrelation inverse matrix of the cell common signal according to a result of the multipath matching for the specified user and multipath information ; calculating a combined weight for the specified user according to a channel estimation value of the specified user and the autocorrelation inverse matrix of the specified user signal; and modulating and demodulating a data channel of the specified user based on the combined weight for the specified user ; wherein acquiring the autocorrelation inverse matrix of the specified user signal from the autocorrelation inverse matrix of the cell common signal according to the result of the multipath matching for the specified user and the multipath information comprises: calculating a sampling position according to the result of the multipath matching for the specified user and the multipath information; and selecting the autocorrelation inverse matrix of the specified user signal at the sampling position from the autocorrelation inverse matrix of the cell common signal according to the sampling position and in combination with an antenna index. determining an autocorrelation inverse matrix of a cell common signal according to uplink sampling antenna data ; performing multipath matching for a specified user according to the uplink sampling antenna data ; acquiring an autocorrelation inverse matrix of a specified user signal from the autocorrelation inverse matrix of the cell common signal according to a result of the multipath matching for the specified user and multipath information ; calculating a combined weight for the specified user according to a channel estimation value of the specified user and the autocorrelation inverse matrix of the specified user signal; and modulating and demodulating a data channel of the specified user based on the combined weight for the specified user ; calculating a sampling position according to the result of the multipath matching for the specified user and the multipath information; and selecting the autocorrelation inverse matrix of the specified user signal at the sampling position from the autocorrelation inverse matrix of the cell common signal according to the sampling position and in combination with an antenna index.
A facade unit mounting apparatus comprising: a first support configured to be attached to a wall and comprising: a first base for extending outwardly from the wall ; and a plurality of resilient elements mounted to and/or formed with the first base , that plurality of resilient elements comprising a plurality of projections extending from the first base ; and a second support for attachment to the wall above the first support, wherein the first and second supports are configured for gripping at least one facade unit mounted between the first and second supports , characterised in that : the plurality of resilient elements are configured to bias the at least one facade unit against the second support by applying a spring force against it; and the plurality of projections are configured to extend towards the wall away from the first base for gripping the at least one facade unit against outward movement from the wall . a first support configured to be attached to a wall and comprising: a first base for extending outwardly from the wall ; and a plurality of resilient elements mounted to and/or formed with the first base , that plurality of resilient elements comprising a plurality of projections extending from the first base ; and a first base for extending outwardly from the wall ; and a plurality of resilient elements mounted to and/or formed with the first base , that plurality of resilient elements comprising a plurality of projections extending from the first base ; and a second support for attachment to the wall above the first support, wherein the first and second supports are configured for gripping at least one facade unit mounted between the first and second supports , characterised in that : the plurality of resilient elements are configured to bias the at least one facade unit against the second support by applying a spring force against it; and the plurality of projections are configured to extend towards the wall away from the first base for gripping the at least one facade unit against outward movement from the wall . the plurality of resilient elements are configured to bias the at least one facade unit against the second support by applying a spring force against it; and the plurality of projections are configured to extend towards the wall away from the first base for gripping the at least one facade unit against outward movement from the wall .
Flush water distributor (1; 8) for use with a sanitary article , wherein the flush water distributor comprises a supply pipe with an inlet opening and comprises at least two outlet openings , wherein a stream divider is arranged in the supply pipe which divides the supply pipe on an outlet side into at least two distribution channels , each of which opens into one of the at least two outlet openings , characterized in that the stream divider has a conical end region at an inlet side for a punctiform stream division.