mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: a. performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing yields coverage of at least 5 gigabases of untargeted sequencing data; b. performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising a nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater coverage than said untargeted sequencing data; c. combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and d. generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample. a. performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing yields coverage of at least 5 gigabases of untargeted sequencing data; b. performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising a nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater coverage than said untargeted sequencing data; c. combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and d. generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample.
An illumination lamp connectable to an inverter ballast for fluorescent lamps, the illumination lamp comprising an illumination control circuit having: a light emitting diode; a rectifier circuit (24, 25) configured to rectify an AC voltage supplied by the inverter ballast for fluorescent lamps and supply the rectified voltage to the light emitting diode; and a switching circuit; characterized in that: the switching circuit is inserted in the plus side wire connection and is configured to be in a non-conductive state when the rectified voltage from the rectifier circuit (24, 25) is less than a predetermined voltage and not allow current to flow in the light emitting diode, to switch to a conductive state when the rectified voltage from the rectifier circuit (24, 25) is equal to or greater than the predetermined voltage and allow the current to flow in the light emitting diode, and to continue in the conductive state even when the rectified voltage changes to be less than the predetermined voltage after switching to the conductive state. a light emitting diode; a rectifier circuit (24, 25) configured to rectify an AC voltage supplied by the inverter ballast for fluorescent lamps and supply the rectified voltage to the light emitting diode; and a switching circuit; characterized in that: the switching circuit is inserted in the plus side wire connection and is configured to be in a non-conductive state when the rectified voltage from the rectifier circuit (24, 25) is less than a predetermined voltage and not allow current to flow in the light emitting diode, to switch to a conductive state when the rectified voltage from the rectifier circuit (24, 25) is equal to or greater than the predetermined voltage and allow the current to flow in the light emitting diode, and to continue in the conductive state even when the rectified voltage changes to be less than the predetermined voltage after switching to the conductive state.
A method for generating additional versions of video content, the method comprising: obtaining first histogram data for a first version of the video content viewable on a first display; obtaining a second version of the video content viewable on a second display; wherein the first and second displays have different display capabilities; obtaining second histogram data for the second version of the video content (21 C); generating (71, 72, 74, 76, 78, 80, 84, 86, 88, 89, 90, 92) a mapping from the second version of the video content to an additional version of the video content by performing a number of iterations of a progressive histogram matching algorithm, the number of iterations being fewer than a maximum number of iterations of the progressive histogram matching algorithm; wherein the number of iterations is determined based upon a signal from an ambient light sensor; wherein generating a mapping comprises determining a histogram transformation which morphs the second histogram data to become more like the first histogram data; and applying the mapping to generate the additional version of the video content from the second version of the video content; wherein the additional version is a recreation of the first version. obtaining first histogram data for a first version of the video content viewable on a first display; obtaining a second version of the video content viewable on a second display; wherein the first and second displays have different display capabilities; obtaining second histogram data for the second version of the video content (21 C); generating (71, 72, 74, 76, 78, 80, 84, 86, 88, 89, 90, 92) a mapping from the second version of the video content to an additional version of the video content by performing a number of iterations of a progressive histogram matching algorithm, the number of iterations being fewer than a maximum number of iterations of the progressive histogram matching algorithm; wherein the number of iterations is determined based upon a signal from an ambient light sensor; wherein generating a mapping comprises determining a histogram transformation which morphs the second histogram data to become more like the first histogram data; and applying the mapping to generate the additional version of the video content from the second version of the video content; wherein the additional version is a recreation of the first version.
An apparatus for accommodating a beverage for a vehicle, the apparatus comprising: a first housing comprising a container accommodation portion and a thermoelectric module that applies a thermal conversion effect to an outer circumferential surface of the container accommodation portion; and a second housing coupled to a lower portion of the first housing and having a second diameter smaller than a first diameter of the first housing, characterized in that, the first housing comprises a plurality of second housing coupling grooves formed in a bottom surface of the first housing and corresponding to the diameter of the second housing. a first housing comprising a container accommodation portion and a thermoelectric module that applies a thermal conversion effect to an outer circumferential surface of the container accommodation portion; and a second housing coupled to a lower portion of the first housing and having a second diameter smaller than a first diameter of the first housing, characterized in that, the first housing comprises a plurality of second housing coupling grooves formed in a bottom surface of the first housing and corresponding to the diameter of the second housing.
A method of setting a display brightness of a display of an electronic device, comprising: capturing one or more images of a user of the electronic device with a camera of the electronic device; illuminating the display during the capturing of the one or more images of the user of the electronic device with the camera; detecting a characteristic of an eye of the user in the one or more images; determining a light adaptation state of the user's eye based on the detected characteristic; and setting the display brightness of the display of the electronic device based on the determined light adaptation state, characterized in that the illumination of the display comprises illuminating the display and displaying monochrome red light. capturing one or more images of a user of the electronic device with a camera of the electronic device; illuminating the display during the capturing of the one or more images of the user of the electronic device with the camera; detecting a characteristic of an eye of the user in the one or more images; determining a light adaptation state of the user's eye based on the detected characteristic; and setting the display brightness of the display of the electronic device based on the determined light adaptation state, characterized in that the illumination of the display comprises illuminating the display and displaying monochrome red light.
A method of beam-initiated etching of a work piece, comprising: exposing the work piece surface to a precursor gas; and irradiating the work piece surface with a beam (418;443) in the presence of the precursor gas, the precursor gas reacting in the presence of the beam to remove material from the work piece surface, characterized in that: the precursor gas comprises an oxalyl halide. exposing the work piece surface to a precursor gas; and irradiating the work piece surface with a beam (418;443) in the presence of the precursor gas, the precursor gas reacting in the presence of the beam to remove material from the work piece surface, characterized in that: the precursor gas comprises an oxalyl halide.
Fuel injection nozzle for use in an internal combustion engine with a nozzle body, in which a pressure space which can be filled with fuel under high pressure is configured and in which a longitudinally displaceable nozzle needle is arranged, the nozzle needle having a sealing face, by way of which it interacts with a conical body seat which is configured in the nozzle body, and opens and closes the connection from the pressure space to a blind bore as a result, the blind bore forming a cylindrical section in a manner which adjoins the body seat directly, with the result that an inlet edge is formed at the transition between the body seat and the blind bore, and with at least one injection opening which is configured in the nozzle body and opens into the blind bore, characterized in that the cylindrical section of the blind bore merges into a diameter reduction at its end which faces away from the inlet edge, with the result that a shoulder is formed at this location, the at least one injection opening opening into the blind bore between the shoulder and the inlet edge.
A crossflow tray for a mass transfer column in which a gas is conducted in countercurrent to a liquid, the crossflow tray having passage orifices for the gas and at least two downcomers, the downcomers projecting beyond the top surface of the crossflow tray and a collecting cup being disposed beneath each downcomer, wherein the downcomer projects into the collecting cup, the minimum horizontal cross-sectional area of the collecting cup being 1.2 to 4 times greater than the horizontal cross-sectional area of the downcomer at the outlet, and where the collecting cup has a circumferential wall having an overflow, and where the overflow is formed by provision of orifices in the wall of the collecting cup or the circumferential wall of the collecting cup forms the overflow by having a lower height in the region of the overflow.
A system for measuring one or more ultrasound parameters of a suspension comprising particles dispersed in a liquid carrier comprising, two or more immersible devices (10, 54) for measuring one or more ultrasound parameters of a suspension comprising particles dispersed in a liquid carrier, comprising, one or more ultrasonic probes (14, 76), adapted to transmit and receive ultrasonic waves, and having a surface, one or more reflectors(18, 78) having at least two reflective surfaces (20, 72, 74) positioned at staggered distances from the probe surface to reflect the ultrasonic waves onto the probe surface and a housing (12, 80), that fixes the probe and the reflector at positions with a space in between the probe surface and the reflective surface, comprising an opening (26, 82, 84) into the housing (12, 80) that is of a size sufficient to allow the suspension to flow into the space between the probe surface and the reflective surface an ultrasound wave generator/receiver device, in communication with the immersible devices (10, 54) to transmit and receive the ultrasound waves to and from the immersible devices (10, 54); and a signal processing device, in communication with the ultrasound wave generator to receive and process the ultrasound waves from the ultrasound wave generator/receiver device, characterized in that at least one of the immersible devices (10, 54) is adapted to calibrate the liquid carrier by further comprising a filter adapted to prevent the particles from flowing into the space while allowing the liquid carrier to flow into the space of the calibrating immersible device (10, 54), wherein temperature recording and compensation is used to reduce temperature variation in suspension measurements.
Method for manufacturing an aluminum alloy sheet, wherein a) an aluminum alloy is prepared, with the composition, as % by weight Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, b) a slab is cast by vertical semicontinuous casting, c) optionally, said slab is homogenized, d) said optionally homogenized slab is hot rolled, in two successive steps, in order to obtain a sheet d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, e) optionally, said sheet is cold rolled, to a thickness of between 1 and 7 mm, f) optionally, a final heat treatment of said optionally cold-rolled sheet is carried out at a temperature below 300°C. a) an aluminum alloy is prepared, with the composition, as % by weight Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, Mg: 4.0-5.2, Mn: 0.40-1.0, Zn: 0.15-0.40, at least one element selected from Ti, Cr, Cu and Zr, with a content, if it is selected, of 0.01-0.15 for Ti, 0.05-0.25 for Cr, 0.02-0.25 for Cu, 0.05-0.25 for Zr, Fe: < 0.40, Si: < 0.40, other elements or impurities < 0.05 each and < 0.15 in total, the remainder aluminum, b) a slab is cast by vertical semicontinuous casting, c) optionally, said slab is homogenized, d) said optionally homogenized slab is hot rolled, in two successive steps, in order to obtain a sheet d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, d1) a hot-rolling step on a reversible mill to a thickness of between 12 and 35 mm, d2) a hot-rolling step on a tandem mill to a thickness of between 3 and 12 mm, wherein the final temperature is at least 240°C and is less than 300°C, e) optionally, said sheet is cold rolled, to a thickness of between 1 and 7 mm, f) optionally, a final heat treatment of said optionally cold-rolled sheet is carried out at a temperature below 300°C.
Cyclone separator for separating solid particles from a gas stream, comprising a separation body which tapers conically in a downward direction and has a longitudinal axis, a gas outlet which dips from above into the separation body, a particle outlet arranged at the lower end of the separation body, and a gas inlet which opens into the separation body transverse to the longitudinal axis of the separation body, where the gas inlet has a first end and a second end, where the second end opens into the separation body, and where the gas inlet widens in the axial direction of the separation body and runs around the separation body in a spiral fashion, where the gas inlet has an initial cross-sectional area (A 1) at the first end, which cross-sectional area decreases in the direction of the separation body to a minimum cross-sectional area (A 2) at the second end, characterized in that at least one guide plate is arranged in the gas inlet for distributing the solid particles present in the gas stream over the widening cross section of the gas inlet. a separation body which tapers conically in a downward direction and has a longitudinal axis, a gas outlet which dips from above into the separation body, a particle outlet arranged at the lower end of the separation body, and a gas inlet which opens into the separation body transverse to the longitudinal axis of the separation body, where the gas inlet has a first end and a second end, where the second end opens into the separation body, and where the gas inlet widens in the axial direction of the separation body and runs around the separation body in a spiral fashion, where the gas inlet has an initial cross-sectional area (A 1) at the first end, which cross-sectional area decreases in the direction of the separation body to a minimum cross-sectional area (A 2) at the second end, characterized in that at least one guide plate is arranged in the gas inlet for distributing the solid particles present in the gas stream over the widening cross section of the gas inlet.
A cache memory apparatus comprising: a cache memory that caches an instruction code corresponding to a fetch address; and a cache control circuit that controls the instruction code to be cached in the cache memory, wherein the cache memory apparatus is characterized in that the cache memory is configured to hold effective flags indicating whether or not each of the cached instruction codes is effective, when the effective flag is effective, the cached instruction code corresponding to the effective flag is prohibited from being overwritten, when the effective flag is disabled, the cached instruction code corresponding to the effective flag is allowed to be overwritten, the cache control circuit caches the instructions codes corresponding to a subroutine in the cache memory and enables the effective flags of the cached instruction codes corresponding to the subroutine when the fetch address indicates a branch into the subroutine, and disables the effective flags of the cached instruction codes corresponding to the subroutine when the number of the cached instructions codes corresponding to the subroutine exceeds a previously set maximum number. a cache memory that caches an instruction code corresponding to a fetch address; and a cache control circuit that controls the instruction code to be cached in the cache memory, wherein the cache memory apparatus is characterized in that the cache memory is configured to hold effective flags indicating whether or not each of the cached instruction codes is effective, when the effective flag is effective, the cached instruction code corresponding to the effective flag is prohibited from being overwritten, when the effective flag is disabled, the cached instruction code corresponding to the effective flag is allowed to be overwritten, the cache control circuit caches the instructions codes corresponding to a subroutine in the cache memory and enables the effective flags of the cached instruction codes corresponding to the subroutine when the fetch address indicates a branch into the subroutine, and disables the effective flags of the cached instruction codes corresponding to the subroutine when the number of the cached instructions codes corresponding to the subroutine exceeds a previously set maximum number. caches the instructions codes corresponding to a subroutine in the cache memory and enables the effective flags of the cached instruction codes corresponding to the subroutine when the fetch address indicates a branch into the subroutine, and disables the effective flags of the cached instruction codes corresponding to the subroutine when the number of the cached instructions codes corresponding to the subroutine exceeds a previously set maximum number.
Cover unit with at least one securing means against lifting off, which is fastened in an end face region of the cover unit and which is formed by a securing pivot lever, which is pivotable manually about a pivot axis which is vertical in use setting of the cover unit, from an open setting, in which the cover unit can be placed on a horizontal beam or lifted off therefrom, to a closed or lifting-off securing setting, in which the cover unit when it is placed on the beam is secured against lifting off the beam, and conversely, wherein the securing pivot lever at least in its closed or lifting-off securing setting is secured by means of a resilient detent element in a first detent setting, with formation of mechanically positive detenting, against unintended pivotation about the pivot axis and wherein the securing pivot lever has a first lever arm (37.1), which extends transversely away from the pivot axis in a first direction (36.1), and a second lever arm (37.2), which extends transversely away from the pivot axis in a second direction (36.2), characterised in that the resilient detent element is formed by a pressure member which is movable relative to the second lever arm (37.2) and arranged at a spacing from the pivot axis and wherein the separate pressure member, which is provided additionally to the lever arms (37.1, 37.2) and in the form of a pin or a ball, of the resilient detent element is loaded by means of a compression spring, wherein either the separate pressure member, which is fastened or mounted in or at the second lever arm at a spacing from the pivot axis to be movable relative to the second lever arm (37.2), is loaded by the separate compression spring, which is supported at the second lever arm (37.2) at a spacing from the pivot axis and which is provided additionally to the lever arms (37.1, 37.2), or the separate pressure member, which is fastened or mounted in or at a part - which is provided in the end region of the cover unit - of the cover unit at a spacing from the pivot axis to be movable relative to the second lever arm, resiliently engages the second lever arm under loading by the compression spring and that the pressure member in the detent setting (29, 32) and loaded by the spring force of the compression spring mechanically positively detents in an opening arranged at a spacing from the pivot axis so that then a pivotation of the securing pivot lever about the pivot axis from the closed or lifting-off securing setting to the open setting is possible only with application of an increased pivotation force.