mhurhangee/patent-ind-claim-en huggingface dataset:
A method for displaying a barcode at a mobile device, the method comprising: capturing via a camera at the mobile device, at least one image every predetermined time interval, wherein capturing the at least one image comprises receiving light from at least one comparison light source; for each captured image, scanning the captured image to determine values of parameters in a set of parameters associated with image data of the captured images; accessing values of the parameters in the set of parameters associated with the at least one comparison light source; comparing the determined parameter values of the image data to the accessed parameters values of the at least one comparison light source; and, when a threshold number of the determined parameter values of the image data are within a value threshold of the accessed parameters values of the at least one comparison light source, then: retrieving a barcode from a set of barcodes; and displaying the retrieved barcode on a display screen of the mobile device, wherein the threshold number is based on one or more parameters comprising specification/attributes of the mobile device, value of items associated with the barcode that is to be displayed, merchant whose barcode is to be displayed, location of the mobile device, user of the mobile device, telecommunications network associated with the mobile device. capturing via a camera at the mobile device, at least one image every predetermined time interval, wherein capturing the at least one image comprises receiving light from at least one comparison light source; for each captured image, scanning the captured image to determine values of parameters in a set of parameters associated with image data of the captured images; accessing values of the parameters in the set of parameters associated with the at least one comparison light source; comparing the determined parameter values of the image data to the accessed parameters values of the at least one comparison light source; and, when a threshold number of the determined parameter values of the image data are within a value threshold of the accessed parameters values of the at least one comparison light source, then: retrieving a barcode from a set of barcodes; and displaying the retrieved barcode on a display screen of the mobile device, wherein the threshold number is based on one or more parameters comprising specification/attributes of the mobile device, value of items associated with the barcode that is to be displayed, merchant whose barcode is to be displayed, location of the mobile device, user of the mobile device, telecommunications network associated with the mobile device. retrieving a barcode from a set of barcodes; and displaying the retrieved barcode on a display screen of the mobile device, wherein the threshold number is based on one or more parameters comprising specification/attributes of the mobile device, value of items associated with the barcode that is to be displayed, merchant whose barcode is to be displayed, location of the mobile device, user of the mobile device, telecommunications network associated with the mobile device.
An analysis method using an analysis device having a microchannel structure that transfers a sample liquid towards a measurement spot by centrifugal force generated by rotating the analysis device about a rotation center and which is used to read a reactant at the measurement spot, the analysis method comprising: injecting the sample liquid into the analysis device; transferring the sample liquid into an immunoassay cavity that holds a latex reagent sensitized by an antibody that specifically reacts with a particular component in the sample liquid, so as to create an immunoassay solution by an immunoreaction between the sample liquid and the latex reagent; transferring the immunoassay solution into an agglutinative reaction cavity that holds an agglutination reagent, so as to create an agglutinated solution by agglutination reaction between the immunoassay solution and the agglutination reagent; and measuring the agglutinated solution by irradiating a light to the agglutinated solution; characterized in that an average particle size of the latex reagent is in a range of 0.12 μm to 0.31 μm, and a mixing ratio of the antibody-sensitized latex reagent and an antigen inside the agglutination reagent is antigen-excessive. injecting the sample liquid into the analysis device; transferring the sample liquid into an immunoassay cavity that holds a latex reagent sensitized by an antibody that specifically reacts with a particular component in the sample liquid, so as to create an immunoassay solution by an immunoreaction between the sample liquid and the latex reagent; transferring the immunoassay solution into an agglutinative reaction cavity that holds an agglutination reagent, so as to create an agglutinated solution by agglutination reaction between the immunoassay solution and the agglutination reagent; and measuring the agglutinated solution by irradiating a light to the agglutinated solution; characterized in that an average particle size of the latex reagent is in a range of 0.12 μm to 0.31 μm, and a mixing ratio of the antibody-sensitized latex reagent and an antigen inside the agglutination reagent is antigen-excessive.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes one central groove , in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm , wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end, and wherein said wiper blade includes a wiping lip at a side of said central groove facing towards a windscreen to be wiped, wherein said wiper blade is made in one piece of elastomeric material, wherein said wiper blade comprises at least one longitudinal cleaning fluid channel , as well as several holes spaced apart along at least a portion of a length of said wiper blade , characterized in that said holes extend obliquely in downward direction from said cleaning fluid channel to the outside for spraying cleaning fluid from said cleaning fluid channel through said holes onto a windscreen to be wiped, wherein said cleaning fluid channel is located inside a downstream sidewall of said central groove , and wherein said holes are provided at said sidewall , wherein said wiper blade includes a spoiler at a side of said cental groove facing away from a windscreen to be wiped, wherein said spoiler is provided with a recess for accommodating said connecting device therein, and wherein said connecting device is provided with an inlet for allowing cleaning fluid to enter said cleaning fluid channel .
A process for making an olelyl phosphocholine (OIPC) containing granulate, said process comprising a blending step, a melt-agglomeration step and a milling step, - wherein the blending step comprises preparing a mixture of olelyl phosphocholine and one or more granulation excipients; - wherein the melt-agglomeration step comprises preparing a granulate by heating said mixture and subjecting said heated mixture to mechanical shear force; - wherein the milling step comprises preparing a milled granulate by cooling said granulate and milling said cooled granulate; and - wherein no solvent is added during the process for granulation. - wherein the blending step comprises preparing a mixture of olelyl phosphocholine and one or more granulation excipients; - wherein the melt-agglomeration step comprises preparing a granulate by heating said mixture and subjecting said heated mixture to mechanical shear force; - wherein the milling step comprises preparing a milled granulate by cooling said granulate and milling said cooled granulate; and - wherein no solvent is added during the process for granulation.
An exhaust gas purification catalyst comprising: a substrate, and catalyst portions provided in the substrate, the catalyst portions including a plurality of voids; the substrate including: inflow-side cells, each inflow-side cell being a space having an open end on an inflow side thereof and a closed end on an outflow side thereof in an exhaust gas flow direction; outflow-side cells, each outflow-side cell being a space having a closed end on an inflow side thereof and an open end on an outflow side thereof in the exhaust gas flow direction; and porous partition walls, each porous partition wall separating the inflow-side cell and the outflow-side cell from each other; the catalyst portions being provided on surfaces of the partition walls that each face the inflow-side cell and/or surfaces of the partition walls that each face the outflow-side cell; wherein in a cross section vertical to the exhaust gas flow direction, the percentage of a total area of the voids, each void satisfying the expression L/{2(πS) 1/2 } ≤ 1.1, wherein L is a perimeter of the void in the cross section and S is an area of the void in the cross section, is greater than 10% to 30% or less based on an apparent area of the catalyst portion present on the partition wall; and a content of zirconium element in terms of oxide (amount of ZrO 2 ) in the catalyst portions is from 35 mass% to 85 mass%. the catalyst portions including a plurality of voids; the substrate including: inflow-side cells, each inflow-side cell being a space having an open end on an inflow side thereof and a closed end on an outflow side thereof in an exhaust gas flow direction; outflow-side cells, each outflow-side cell being a space having a closed end on an inflow side thereof and an open end on an outflow side thereof in the exhaust gas flow direction; and porous partition walls, each porous partition wall separating the inflow-side cell and the outflow-side cell from each other; inflow-side cells, each inflow-side cell being a space having an open end on an inflow side thereof and a closed end on an outflow side thereof in an exhaust gas flow direction; outflow-side cells, each outflow-side cell being a space having a closed end on an inflow side thereof and an open end on an outflow side thereof in the exhaust gas flow direction; and porous partition walls, each porous partition wall separating the inflow-side cell and the outflow-side cell from each other; the catalyst portions being provided on surfaces of the partition walls that each face the inflow-side cell and/or surfaces of the partition walls that each face the outflow-side cell; wherein in a cross section vertical to the exhaust gas flow direction, the percentage of a total area of the voids, each void satisfying the expression L/{2(πS) 1/2 } ≤ 1.1, wherein L is a perimeter of the void in the cross section and S is an area of the void in the cross section, is greater than 10% to 30% or less based on an apparent area of the catalyst portion present on the partition wall; and a content of zirconium element in terms of oxide (amount of ZrO 2 ) in the catalyst portions is from 35 mass% to 85 mass%.
A cover unit device for termination of an electrical cable , the device comprising: a unitary cold shrinkable, tubular, elastomeric cover sleeve defining a cover sleeve through passage that is configured to receive the electrical cable, the cover sleeve comprising: a first type of stress control element which comprises a geometrical stress relief element and wherein the geometrical stress relief element comprises a stress cone that includes an electrically conductive and/or semiconductive portion that is configured to conductively engage a semiconductor layer of the electrical cable , and an outer electrically insulating layer , characterized by a second type of stress control element that is different from the first type of stress control element and that is radially disposed around the first type of stress control element, wherein the second type of stress control element is a high-K layer and is configured to conductively engage the semiconductor layer of the electrical cable when installed thereon and wherein the second type of stress control element is bonded to the inner surface of the outer electrically insulating layer . a first type of stress control element which comprises a geometrical stress relief element and wherein the geometrical stress relief element comprises a stress cone that includes an electrically conductive and/or semiconductive portion that is configured to conductively engage a semiconductor layer of the electrical cable , and an outer electrically insulating layer , characterized by a second type of stress control element that is different from the first type of stress control element and that is radially disposed around the first type of stress control element, wherein the second type of stress control element is a high-K layer and is configured to conductively engage the semiconductor layer of the electrical cable when installed thereon and wherein the second type of stress control element is bonded to the inner surface of the outer electrically insulating layer .
Method for jacketing an elongated item with an adhesive tape comprising a tapelike carrier provided on at least one side with a thermally curable, meltable adhesive layer, the adhesive layer comprising an epoxide-functionalized acrylonitrile/butadiene copolymer having on average more than 1.5 epoxide groups per molecule and the reaction product of phthalic anhydride and diethylenetriamine, where the adhesive tape is guided in a helical line around the elongated item or the elongated item is wrapped in an axial direction by the adhesive tape, the elongated item together with the adhesive tape wrapping is brought into the desired disposition, the elongated item is held in this disposition, and the curable adhesive is brought to cure by the supply of thermal energy at a temperature of between 60°C and 230°C.
A method carried out in a terminal for setting up a connection with a wireless communication network including a network node, comprising transmitting (S310) terminal preference data to the radio network, said terminal preference data indicating terminal preference to receive one of direct or indirect downlink transmission when the terminal operates or intends to operate over a relay in the uplink; transmitting (S320), in a service request to the network node over a relay, an in-coverage indicator indicating whether the terminal is in or out of downlink coverage based on a detected signal quality of a signal received from said network node; receiving (S330) information from the network node indicating direct or indirect downlink data transmission, wherein the information depends on the preference data and the in-coverage indicator; receiving (S340) resource data for a connection configured according to said information; wherein the in-coverage indicator, responsive to indicating out of downlink coverage, configures the network node to indicate indirect downlink transmission, overriding any preference of direct downlink transmission provided by the preference data. transmitting (S310) terminal preference data to the radio network, said terminal preference data indicating terminal preference to receive one of direct or indirect downlink transmission when the terminal operates or intends to operate over a relay in the uplink; transmitting (S320), in a service request to the network node over a relay, an in-coverage indicator indicating whether the terminal is in or out of downlink coverage based on a detected signal quality of a signal received from said network node; receiving (S330) information from the network node indicating direct or indirect downlink data transmission, wherein the information depends on the preference data and the in-coverage indicator; receiving (S340) resource data for a connection configured according to said information; wherein the in-coverage indicator, responsive to indicating out of downlink coverage, configures the network node to indicate indirect downlink transmission, overriding any preference of direct downlink transmission provided by the preference data.
A method of estimating the skew of a local clock of an end-to-end transparent clock device connected through a network with a master device having a master clock and a slave device , the method including the steps of: exchanging timing messages between the master device and the slave device over the network , the timing messages passing through said transparent clock device ; recording times of sending and receiving of said timing messages by the master device ; extracting, by the transparent clock device , from timing messages sent from the master device to the slave device , the times of sending and receiving of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device ; recording the times of sending by the transparent clock device of timing messages sent from the slave device to the master device ; extracting, by the transparent clock device , from the timing messages, the residence time of the timing messages in other transparent clock devices between the master device and the transparent clock device ; by the transparent clock device : measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device ; and estimating, by mthe transparent clock device , the skew of the local clock of the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times. exchanging timing messages between the master device and the slave device over the network , the timing messages passing through said transparent clock device ; recording times of sending and receiving of said timing messages by the master device ; extracting, by the transparent clock device , from timing messages sent from the master device to the slave device , the times of sending and receiving of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device ; recording the times of sending by the transparent clock device of timing messages sent from the slave device to the master device ; extracting, by the transparent clock device , from the timing messages, the residence time of the timing messages in other transparent clock devices between the master device and the transparent clock device ; by the transparent clock device : measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device ; and estimating, by mthe transparent clock device , the skew of the local clock of the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times.
An isolated tracrRNA comprising a chemically-modified form of one of SEQ ID NOs.:2, 18, 30-33 and 36-39, wherein the isolated tracrRNA displays activity in a Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)-CRISPR associated (Cas) (CRISPR-Cas) endonuclease system, wherein the chemically-modified form of one of SEQ ID NOs.:2, 18, 30-33 and 36-39 comprises a chemically-modified nucleotide having an end-modifying group selected from a group consisting of a propanediol (C3) spacer, N,N-diethyl-4-(4-nitronaphthalen-1-ylazo)-phenylamine ("ZEN"), and an inverted-dT residue.
A nutritional composition, not being human milk, comprising 2'-fucosyllactose and betagalacto-oligosaccharides and fructo-oligosaccharides, wherein the weight ratio 2'-fucosyllactose to betagalacto-oligosaccharides is from 5 to 0.05, and the weight ratio 2'-fucosyllactose to fructo-oligosaccharides is from 10 to 0.05, preferably wherein the weight ratio 2'-fucosyllactose to betagalacto-oligosaccharide is from 5 to 0.1 and the weight ratio 2'-fucosyllactose to fructo-oligosaccharide is from 10 to 0.1.
A polyamide molding compound comprising the following components or consisting of these components: (A) 84.5 to 97.0 wt% of at least one amorphous or microcrystalline copolyamide selected from the group consisting of PA 6I/6T/MACMI/MACMT/PACMI/PACMT/Y, PA 6I/6T/MACMI/MACMT/Y, and mixtures thereof, wherein the monomer Y has 7 to 14 carbon atoms and is selected from the group consisting of lactams, ω-amino acids, and mixtures hereof; (B) 3.0 to 9.5 wt% of at least one functionalized impact resistance modifier comprising the monomers Ba) ethylene; Bb) propylene; and Bc) 1-butene, wherein the functionalization takes place by copolyermization and/or by grafting with a compound selected from the group consisting of unsaturated carboxylic acids, unsaturated carboxylic acid derivatives, unsaturated glycidyl compounds, and mixtures thereof; (C) 0 to 6 wt% of at least one additive; wherein the weight proportions of the components (A) to (C) add up to 100 wt%. (A) 84.5 to 97.0 wt% of at least one amorphous or microcrystalline copolyamide selected from the group consisting of PA 6I/6T/MACMI/MACMT/PACMI/PACMT/Y, PA 6I/6T/MACMI/MACMT/Y, and mixtures thereof, wherein the monomer Y has 7 to 14 carbon atoms and is selected from the group consisting of lactams, ω-amino acids, and mixtures hereof; (B) 3.0 to 9.5 wt% of at least one functionalized impact resistance modifier comprising the monomers Ba) ethylene; Bb) propylene; and Bc) 1-butene, wherein the functionalization takes place by copolyermization and/or by grafting with a compound selected from the group consisting of unsaturated carboxylic acids, unsaturated carboxylic acid derivatives, unsaturated glycidyl compounds, and mixtures thereof; Ba) ethylene; Bb) propylene; and Bc) 1-butene, (C) 0 to 6 wt% of at least one additive;
An Fc binding protein comprising one or more domains, wherein the amino acid in position 50, the amino acid in position 51, or the amino acid in position 53 corresponding to SEQ ID NO: 2 is Cysteine, wherein said Fc binding protein is stable under alkaline conditions.
A recombinant protein immobilised on a surface, the recombinant protein being capable of binding to complement factor H, and thereby inducing increased binding of C3d and C3b by bound complement factor H compared to unbound CFH, wherein the recombinant protein binds to CFH within complement control proteins (CCPs) 8-10 of CFH.