mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: executing, by a computing device, a first application that comprises content; receiving, by the computing device, an input, the method characterized in that the input triggers activation of a user interface for a content selection application; and in that the method comprises: displaying, based on the received input, a layered view that presents the user interface of the content selection application layered over the first application; receiving, through the user interface of the content selection application, a selection of a user interface feature for identifying block portions of content within the first application, receiving, by the computing device, a single and non-continuous click action for selection of a block portion of the plurality of block portions of the content; and in response to the single and non-continuous click action processed through the user interface, selecting via the content selection application, the block portion of the content from the first application, wherein the block portion of the content comprises at least two snippets of content. executing, by a computing device, a first application that comprises content; receiving, by the computing device, an input, the method characterized in that the input triggers activation of a user interface for a content selection application; and in that the method comprises: displaying, based on the received input, a layered view that presents the user interface of the content selection application layered over the first application; receiving, through the user interface of the content selection application, a selection of a user interface feature for identifying block portions of content within the first application, receiving, by the computing device, a single and non-continuous click action for selection of a block portion of the plurality of block portions of the content; and in response to the single and non-continuous click action processed through the user interface, selecting via the content selection application, the block portion of the content from the first application, wherein the block portion of the content comprises at least two snippets of content. displaying, based on the received input, a layered view that presents the user interface of the content selection application layered over the first application; receiving, through the user interface of the content selection application, a selection of a user interface feature for identifying block portions of content within the first application, receiving, by the computing device, a single and non-continuous click action for selection of a block portion of the plurality of block portions of the content; and in response to the single and non-continuous click action processed through the user interface, selecting via the content selection application, the block portion of the content from the first application, wherein the block portion of the content comprises at least two snippets of content.
Method for producing a sport beverage having an alcohol content of less than about 1.2 vol-%, preferably less than 0.5 vol-%, comprising the following steps: (i) providing malt and optionally unmalted grains; (ii) providing mashing liquor produced from spent grains; (iii) processing the malt and the mashing liquor to obtain a wort; (iv) fermenting the wort by using a yeast, preferably maltose-negative yeast; (v) optionally, blending with flavour(s) and/or vitamin(s); and (vi) optionally, adding of sugar(s), wherein the production of mashing liquor produced from spent grains which is provided in step (ii) comprises extracting and/or solubilizing proteins contained in the spent grains, wherein said extraction and/or solubilizing of proteins contained in the spent grains comprises (a) mechanical crushing of the spent grains, (b) mixing of the mechanically broken down spent grains with brewing liquor, (c) enzymatic degradation. (i) providing malt and optionally unmalted grains; (ii) providing mashing liquor produced from spent grains; (iii) processing the malt and the mashing liquor to obtain a wort; (iv) fermenting the wort by using a yeast, preferably maltose-negative yeast; (v) optionally, blending with flavour(s) and/or vitamin(s); and (vi) optionally, adding of sugar(s), (a) mechanical crushing of the spent grains, (b) mixing of the mechanically broken down spent grains with brewing liquor, (c) enzymatic degradation.
A logarithmic amplifier, comprising: an amplifier circuit configured to receive an input signal at an amplifier input, oscillate the input signal, and generate a first output signal at an amplifier output, wherein the input signal includes a modulated signal to be detected and electrical noise; a feedback circuit coupled to the amplifier output and the amplifier input and configured to establish a 180 degree phase shift between the input signal and the first output signal, the feedback circuit including a single capacitor configured to maintain oscillation of the input signal; a parallel resonant circuit connected to the amplifier output and configured to cause the amplifier circuit to resonate at or around a center frequency and generate the first output signal, the first output signal including a regenerated copy of the input signal; and a controller circuit (508, 510) connected to the amplifier input and configured to cyclically terminate oscillation of the input signal each time a pre-determined input threshold level is reached, the controller circuit including a low pass filter configured to generate a second output signal having a repetition frequency. an amplifier circuit configured to receive an input signal at an amplifier input, oscillate the input signal, and generate a first output signal at an amplifier output, wherein the input signal includes a modulated signal to be detected and electrical noise; a feedback circuit coupled to the amplifier output and the amplifier input and configured to establish a 180 degree phase shift between the input signal and the first output signal, the feedback circuit including a single capacitor configured to maintain oscillation of the input signal; a parallel resonant circuit connected to the amplifier output and configured to cause the amplifier circuit to resonate at or around a center frequency and generate the first output signal, the first output signal including a regenerated copy of the input signal; and a controller circuit (508, 510) connected to the amplifier input and configured to cyclically terminate oscillation of the input signal each time a pre-determined input threshold level is reached, the controller circuit including a low pass filter configured to generate a second output signal having a repetition frequency.
A valve prosthesis for installation in a body duct comprising: an expandable, cylindrical outer scaffolding having an inlet for installing upstream and an outlet for installing downstream; a segmented frustoconical inner framework having a base attached to the inlet of the cylindrical scaffolding, and an outlet of preset diameter provided by a leaflet-support structure that is fabricated as one piece together with a constant-diameter opening limiter; a plurality of prosthetic valve leaflets attached proximally to the inlet side of the inner framework but having distal ends that are free to open and close; the outlet of the cylindrical scaffolding being joined to the outlet of the frustoconical inner framework by a flexible membrane, such that the expandable cylindrical outer scaffolding is expandable to contact an inner wall of the duct allowing fluid flow through the segmented frustoconical inner framework from the inlet to the outlet, but preventing reverse flow by the valve leaflets flexing and coapting together, characterized in that the constant diameter opening limiter is configured from three arcuate elements that fold as the valve prosthetic is crimped. an expandable, cylindrical outer scaffolding having an inlet for installing upstream and an outlet for installing downstream; a segmented frustoconical inner framework having a base attached to the inlet of the cylindrical scaffolding, and an outlet of preset diameter provided by a leaflet-support structure that is fabricated as one piece together with a constant-diameter opening limiter; a plurality of prosthetic valve leaflets attached proximally to the inlet side of the inner framework but having distal ends that are free to open and close; the outlet of the cylindrical scaffolding being joined to the outlet of the frustoconical inner framework by a flexible membrane, such that the expandable cylindrical outer scaffolding is expandable to contact an inner wall of the duct allowing fluid flow through the segmented frustoconical inner framework from the inlet to the outlet, but preventing reverse flow by the valve leaflets flexing and coapting together, characterized in that the constant diameter opening limiter is configured from three arcuate elements that fold as the valve prosthetic is crimped.
A particulate sensor for being attached to a pipe having electrical conductivity, and adapted to detect the amount of particulates in gas flowing through the pipe, comprising a sensor unit, wherein the sensor unit comprises: a channel (611 to 618) for receiving compressed air, for receiving the gas, and for discharging the compressed air together with the gas; an ion generation section for generating ions, comprising a first electrode and a ground electrode; an electric charge section for electrically charging at least portion of the particulates in the gas which contains the particulates, by use of the ions; and a capture section for trapping at least a portion of the ions not used for electrically charging the particulates, comprising the ground electrode; wherein in use, the ground electrode has a first floating potential corresponding to the amount of the ions used for electrically charging the particulates and the sensor unit can detect the amount of the particulates in the gas on the basis of said first floating potential; the sensor unit being characterized in that the sensor unit comprises a first, a second and a third ceramic layer, the first ceramic layer being disposed in between the second and third ceramic layers and defining the channel; the first electrode being formed by a discharge pattern disposed between the first and second ceramic layers and the ground electrode being formed by a ground pattern disposed between the first and third ceramic layers. a channel (611 to 618) for receiving compressed air, for receiving the gas, and for discharging the compressed air together with the gas; an ion generation section for generating ions, comprising a first electrode and a ground electrode; an electric charge section for electrically charging at least portion of the particulates in the gas which contains the particulates, by use of the ions; and a capture section for trapping at least a portion of the ions not used for electrically charging the particulates, comprising the ground electrode; wherein in use, the ground electrode has a first floating potential corresponding to the amount of the ions used for electrically charging the particulates and the sensor unit can detect the amount of the particulates in the gas on the basis of said first floating potential; the sensor unit being characterized in that the sensor unit comprises a first, a second and a third ceramic layer, the first ceramic layer being disposed in between the second and third ceramic layers and defining the channel; the first electrode being formed by a discharge pattern disposed between the first and second ceramic layers and the ground electrode being formed by a ground pattern disposed between the first and third ceramic layers.
A method for separating double-stranded nucleic acids from a mixture comprising double stranded nucleic acids, single-stranded nucleic acids and/or free nucleotides in an aqueous solution comprising the steps of: a) contacting the mixture with a spatially inhomogenously functionalized nanoporous material, wherein the surface of the nanoporous material comprises pore surface and non-pore surface and wherein the pore surface is functionalized with a primary amine to adsorb dNTP, primers and single strands and the non-pore surface is functionalized with negatively charged compounds selected from the group consisting of anionic compounds, polyanionic compounds, polyelectrolytes, and combinations thereof, and/or hydrophobic compounds and/or adsorption resistant compounds that are resistant to double stranded nucleic acid adsorption, and wherein the nanoporous material has pores of approximately 2 to 300 nm; b) incubating the aqueous solution and nanoporous material from a) under conditions such that the single-stranded nucleic acids and/or free nucleotides are selectively adsorbed to the pore surface; and c) isolating the nanoporous material from the aqueous solution thereby separating the double stranded nucleic acids from the single-stranded nucleic acids and/or free nucleotides, wherein the aqueous solution is incubated with the nanoporous material for 5 to 60 seconds. a) contacting the mixture with a spatially inhomogenously functionalized nanoporous material, wherein the surface of the nanoporous material comprises pore surface and non-pore surface and wherein the pore surface is functionalized with a primary amine to adsorb dNTP, primers and single strands and the non-pore surface is functionalized with negatively charged compounds selected from the group consisting of anionic compounds, polyanionic compounds, polyelectrolytes, and combinations thereof, and/or hydrophobic compounds and/or adsorption resistant compounds that are resistant to double stranded nucleic acid adsorption, and wherein the nanoporous material has pores of approximately 2 to 300 nm; b) incubating the aqueous solution and nanoporous material from a) under conditions such that the single-stranded nucleic acids and/or free nucleotides are selectively adsorbed to the pore surface; and c) isolating the nanoporous material from the aqueous solution thereby separating the double stranded nucleic
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, sidelink UE information including information related to new radio, NR, sidelink communication; receiving, from the base station, a radio resource control, RRC, message including configuration information related to the NR sidelink communication; and performing the NR sidelink communication based on the configuration information related to the NR sidelink communication, wherein the configuration information includes a sidelink configured grant configuration information list, wherein the sidelink configured grant configuration information list includes one or more sidelink configured grant configurations, and wherein each sidelink configured grant configuration includes an identifier to identify a sidelink configured grant configuration, a number of hybrid automatic repeat request, HARQ, processes for the sidelink configured grant configuration, sidelink time resource information for the sidelink configured grant configuration, and sidelink frequency resource information for the sidelink configured grant configuration. transmitting, to a base station, sidelink UE information including information related to new radio, NR, sidelink communication; receiving, from the base station, a radio resource control, RRC, message including configuration information related to the NR sidelink communication; and performing the NR sidelink communication based on the configuration information related to the NR sidelink communication, wherein the configuration information includes a sidelink configured grant configuration information list, wherein the sidelink configured grant configuration information list includes one or more sidelink configured grant configurations, and wherein each sidelink configured grant configuration includes an identifier to identify a sidelink configured grant configuration, a number of hybrid automatic repeat request, HARQ, processes for the sidelink configured grant configuration, sidelink time resource information for the sidelink configured grant configuration, and sidelink frequency resource information for the sidelink configured grant configuration.
A cryogenic disc or ball milling vessel for a laboratory mill for milling reactive samples, comprising a cylindrical milling compartment, containing grinding members such as disc, rings or balls and being closed at the top with a tight lid, the milling compartment being surrounded by cooling space being adapted to be filled with cooling medium, characterised in that the milling compartment is placed inside a cryostatic unit to create the cooling space therebetween, and the milling compartment is separable from the cryostatic unit, and dimensioned such that a gap is created between a flange on said cryostatic unit and the surrounding wall of said milling compartment, in order to allow at least partial filling with a cooling medium.
A method for cross-discipline validation checking in a multidisciplinary engineering system, the method comprising: storing, by a server, a predefined multidisciplinary data validation rule including requirements for application data objects representing a device according to how the device should be modeled in different engineering applications for different engineering disciplines which have different roles in the multidisciplinary engineering system, wherein the application data objects represent different engineered characteristics of the device modeled in the different engineering applications; requesting, by one of the engineering applications, a cross-discipline data validation check of data consistency between the application data objects in the different engineering applications; performing, in response to the request, the cross-discipline data validation check in the different engineering applications based on the application data objects that are referenced in the multidisciplinary data validation rule, wherein the cross-discipline validation check includes checking to make sure that the application data objects have been instantiated in the engineering application; and providing, in response to performing the cross-discipline data validation check, a response indicating the result of the cross-discipline data validation check. storing, by a server, a predefined multidisciplinary data validation rule including requirements for application data objects representing a device according to how the device should be modeled in different engineering applications for different engineering disciplines which have different roles in the multidisciplinary engineering system, wherein the application data objects represent different engineered characteristics of the device modeled in the different engineering applications; requesting, by one of the engineering applications, a cross-discipline data validation check of data consistency between the application data objects in the different engineering applications; performing, in response to the request, the cross-discipline data validation check in the different engineering applications based on the application data objects that are referenced in the multidisciplinary data validation rule, wherein the cross-discipline validation check includes checking to make sure that the application data objects have been instantiated in the engineering application; and providing, in response to performing the cross-discipline data validation check, a response indicating the result of the cross-discipline data validation check.
A server configured for use in a system for use in the validation of a correction to map data for a geographic location, the server being in communication with a transmitter and a receiver for communicating with a plurality of navigation devices, and the server comprising: a route log configured to store navigation routes travelled by the plurality of navigation devices; and a processing resource comprising: a device selection module configured to select a set of one or more navigation devices for which a route is stored in said route log that includes a location within a predetermined distance from a geographic location associated with a correction to map data; a user request generator that is configured to generate a user request to validate the correction for transmission by the transmitter to the selected set of one or more navigation devices; and a response review module that is configured to analyse user responses received by the receiver to validate said correction. a route log configured to store navigation routes travelled by the plurality of navigation devices; and a processing resource comprising: a device selection module configured to select a set of one or more navigation devices for which a route is stored in said route log that includes a location within a predetermined distance from a geographic location associated with a correction to map data; a user request generator that is configured to generate a user request to validate the correction for transmission by the transmitter to the selected set of one or more navigation devices; and a response review module that is configured to analyse user responses received by the receiver to validate said correction. a device selection module configured to select a set of one or more navigation devices for which a route is stored in said route log that includes a location within a predetermined distance from a geographic location associated with a correction to map data; a user request generator that is configured to generate a user request to validate the correction for transmission by the transmitter to the selected set of one or more navigation devices; and a response review module that is configured to analyse user responses received by the receiver to validate said correction.
A method of detecting a disorder of pregnancy or fetal aneuploidy up to the second trimester comprising: subjecting a maternal urine sample from a pregnant woman to mass spectral analysis wherein the sample is subjected to direct mass spectral analysis without any prior processing other than optional diluting, comparing the normalised patterns resulting from said analysis to mass spectral patterns obtained from normal pregnancies to determine if said patterns from said sample are indicative of a disorder of pregnancy or fetal aneuploidy, wherein the patterns generated from the mass spectral analysis is used in the method, and not the inferred mass of the components present in the sample; and wherein the mass spectral analysis carried out is matrix-assisted laser desorption/ionization time-of-flight mass spectrometry (MALDI-ToF MS). subjecting a maternal urine sample from a pregnant woman to mass spectral analysis wherein the sample is subjected to direct mass spectral analysis without any prior processing other than optional diluting, comparing the normalised patterns resulting from said analysis to mass spectral patterns obtained from normal pregnancies to determine if said patterns from said sample are indicative of a disorder of pregnancy or fetal aneuploidy, wherein the patterns generated from the mass spectral analysis is used in the method, and not the inferred mass of the components present in the sample; and wherein the mass spectral analysis carried out is matrix-assisted laser desorption/ionization time-of-flight mass spectrometry (MALDI-ToF MS).