mhurhangee/ep-ind-claims huggingface dataset:
A culture medium for a 3-dimensional multi-organ culture system comprising or consisting or consisting essentially of: Complete PneumaCult®-ALI medium and Complete William's E medium, wherein the amount of Complete PneumaCult®-ALI medium is from 70% (v/v) to 95% (v/v) with the remaining volume being made up to 100% (v/v) with Complete William's E medium; wherein Complete PneumaCult®-ALI medium is a mixture of PneumaCult®-ALI Basal Medium (StemCell Technologies, ref. 05002), PneumaCult®-ALI 10X Supplement (StemCell Technologies, ref. 05003), PneumaCult®-ALI Maintenance Supplement (StemCell Technologies, ref. 05006), Hydrocortisone Stock Solution (StemCell Technologies, ref. 07925), and 0.2% Heparin Sodium Salt in PBS (StemCell Technologies, ref. 37250); and wherein Complete William's E medium is William's E medium (ThermoFisher Scientific, catalogue number 12551032) supplemented with HepaRG Maintenance & Metabolism Supplement (ThermoFisher Scientific, catalogue number HPRG720) and GlutaMAXTM solution (ThermoFisher Scientific, catalogue number 35050061). Complete PneumaCult®-ALI medium and Complete William's E medium, wherein the amount of Complete PneumaCult®-ALI medium is from 70% (v/v) to 95% (v/v) with the remaining volume being made up to 100% (v/v) with Complete William's E medium; wherein Complete PneumaCult®-ALI medium is a mixture of PneumaCult®-ALI Basal Medium (StemCell Technologies, ref. 05002), PneumaCult®-ALI 10X Supplement (StemCell Technologies, ref. 05003), PneumaCult®-ALI Maintenance Supplement (StemCell Technologies, ref. 05006), Hydrocortisone Stock Solution (StemCell Technologies, ref. 07925), and 0.2% Heparin Sodium Salt in PBS (StemCell Technologies, ref. 37250); and wherein Complete William's E medium is William's E medium (ThermoFisher Scientific, catalogue number 12551032) supplemented with HepaRG Maintenance & Metabolism Supplement (ThermoFisher Scientific, catalogue number HPRG720) and GlutaMAXTM solution (ThermoFisher Scientific, catalogue number 35050061).
A method for detecting one or more target nucleic acids of Epstein Barr Virus in a sample, the method comprising: (a) providing a nucleic acid sample; (b) performing an amplification step comprising contacting the nucleic acid sample with one or more sets of primers to produce an amplification product, if the one or more target nucleic acids of EBV are present in the sample; (c) performing a hybridization step, comprising contacting the amplification product, if the one or more target nucleic acids of EBV are present in the sample, with one or more probes; and (d) performing a detection step, comprising detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of the one or more target nucleic acids of EBV in the sample, and wherein the absence of the amplification product is indicative of the absence of the one or more target nucleic acids of EBV in the sample; and wherein the one or more sets of primers and the one or more probes comprise: (i) a set of primers comprising a first primer comprising a nucleic acid sequence of SEQ ID NO:1 and a second primer comprising a nucleic acid sequence of SEQ ID NO:3, or complements thereof, and a probe comprising a nucleic acid sequence of SEQ ID NO:2, or a complement thereof; and/or (ii) a set of primers comprising a first primer comprising a nucleic acid sequence of SEQ ID NO:4 and a second primer comprising a nucleic acid sequence of SEQ ID NO:6, or complements thereof, and a probe comprising a nucleic acid sequence of SEQ ID NO:5, or a complement thereof. (a) providing a nucleic acid sample; (b) performing an amplification step comprising contacting the nucleic acid sample with one or more sets of primers to produce an amplification product, if the one or more target nucleic acids of EBV are present in the sample; (c) performing a hybridization step, comprising contacting the amplification product, if the one or more target nucleic acids of EBV are present in the sample, with one or more probes; and (d) performing a detection step, comprising detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of the one or more target nucleic acids of EBV in the sample, and wherein the absence of the amplification product is indicative of the absence of the one or more target nucleic acids of EBV in the sample; and (i) a set of primers comprising a first primer comprising a nucleic acid sequence of SEQ ID NO:1 and a second primer comprising a nucleic acid sequence of SEQ ID NO:3, or complements thereof, and a probe comprising a nucleic acid sequence of SEQ ID NO:2, or a complement thereof; and/or (ii) a set of primers comprising a first primer comprising a nucleic acid sequence of SEQ ID NO:4 and a second primer comprising a nucleic acid sequence of SEQ ID NO:6, or complements thereof, and a probe comprising a nucleic acid sequence of SEQ ID NO:5, or a complement thereof.
A powder for additive manufacturing, having a composition consisting of, in mass%: 0.25<C<0.40, 0.001≤Si≤0.15, 0.30≤Mn≤0.45, 5.0≤Cr≤5.5, 1.0≤Mo≤1.5, 0.35≤V≤0.45, 0.01≤N≤0.05, 0.01≤O≤0.04, and optionally, P<0.10, Cu<0.20, Ni<0.20, Al<0.05, Zr<0.05, S<0.20, Pb<0.20, Bi<0.20, Nb<0.20, Ti<0.20, B<0.10, and Co<0.20, with the balance being Fe and unavoidable impurities, wherein a surface of the powder for additive manufacturing is coated with an oxide film, and the oxide film has a thickness of 3 nm or more and 30 nm or less. 0.25<C<0.40, 0.001≤Si≤0.15, 0.30≤Mn≤0.45, 5.0≤Cr≤5.5, 1.0≤Mo≤1.5, 0.35≤V≤0.45, 0.01≤N≤0.05, 0.01≤O≤0.04, and optionally, P<0.10, Cu<0.20, Ni<0.20, Al<0.05, Zr<0.05, S<0.20, Pb<0.20, Bi<0.20, Nb<0.20, Ti<0.20, B<0.10, and Co<0.20, with the balance being Fe and unavoidable impurities, wherein a surface of the powder for additive manufacturing is coated with an oxide film, and the oxide film has a thickness of 3 nm or more and 30 nm or less.
A method of serial-to-parallel conversion including: generating a clock by taking the exclusive OR of received data and a strobe, sequentially latching the data in a first shift register including a plurality of memory devices (10a-10n) at a rising edge of the clock, and sequentially latching the data in a second shift register including a plurality of memory devices (20a-20n) at a falling edge of the clock, the method further comprising: providing a first logical circuit at a data input side of the first shift register, the first logical circuit to which the data and the strobe are inputted; providing a second logical circuit at a data input side of the second shift register, the second logical circuit to which the data and the strobe are inputted; shifting a data latch timing of the first shift register to the falling edge of the clock; shifting a data latch timing of the second shift register to the rising edge of the clock; and wherein the first logical circuit is configured to output 0 when the data is 0 and the strobe is 1, output 1 when the data is 1 and the strobe is 0, and output a previous value when the data and the strobe are both 0 or both 1; and the second logical circuit is configured to output 0 when the data is 0 and the strobe is 0, output 1 when the data is 1 and the strobe is 1, and output a previous value when the data and the strobe have different values from each other. generating a clock by taking the exclusive OR of received data and a strobe, sequentially latching the data in a first shift register including a plurality of memory devices (10a-10n) at a rising edge of the clock, and sequentially latching the data in a second shift register including a plurality of memory devices (20a-20n) at a falling edge of the clock, the method further comprising: providing a first logical circuit at a data input side of the first shift register, the first logical circuit to which the data and the strobe are inputted; providing a second logical circuit at a data input side of the second shift register, the second logical circuit to which the data and the strobe are inputted; shifting a data latch timing of the first shift register to the falling edge of the clock; shifting a data latch timing of the second shift register to the rising edge of the clock; providing a first logical circuit at a data input side of the first shift register, the first logical circuit to which the data and the strobe are inputted; providing a second logical circuit at a data input side of the second shift register, the second logical circuit to which the data and the strobe are inputted; shifting a data latch timing of the first shift register to the falling edge of the clock; shifting a data latch timing of the second shift register to the rising edge of the clock;
A method for correcting errors in a block of digital data transmitted over a wireless link or channel being part of a Tire Pressure Monitoring System (TPMS), the data block comprising a plurality of transmitted data frames, and each data frame including at least one sequence of data bits, the method comprising: a. identifying valid data frames and corrupted data frames by measuring a data corruption level for each transmitted data frame, wherein measuring the data corruption level comprises detecting a number and position of any invalid data bits or symbols in the transmitted data frame; b. comparing the measured data corruption level for each corrupted data frame to a data corruption threshold; c. reconstructing the corrupted data frames having a data corruption level below the data corruption threshold; d. reconstructing the data block using data from valid and reconstructed data frames; and e. verifying the data in the reconstructed data block. a. identifying valid data frames and corrupted data frames by measuring a data corruption level for each transmitted data frame, wherein measuring the data corruption level comprises detecting a number and position of any invalid data bits or symbols in the transmitted data frame; b. comparing the measured data corruption level for each corrupted data frame to a data corruption threshold; c. reconstructing the corrupted data frames having a data corruption level below the data corruption threshold; d. reconstructing the data block using data from valid and reconstructed data frames; and e. verifying the data in the reconstructed data block.
A dissolved-gas measurement device that measures a concentration of a specific gas dissolved in aqueous solution of the specific gas flowing through a pipe that the specific gas permeates, the dissolved-gas measurement device comprising: a pipe holding part comprising first and second pipe holding parts (1a, 1b) that fix the dissolved-gas measurement device to the pipe; a gas storage part that is adapted to store gas that permeates the pipe; and a ventilation tube through which the gas stored in the gas storage part is discharged, the ventilation tube including a gas sensor that measures the concentration of the specific gas flowing into the ventilation tube from the gas storage part, and a ventilation hole that discharges the gas to outside the ventilation tube, characterized in that the ventilation tube is arranged on one-side end of the pipe holding parts (1a, 1b) in a direction of the pipe and perpendicular to the direction of the pipe on a surface of the first pipe pressing portion opposite to a side in contact with the pipe so that mixed gas flows into the ventilation tube from the gas storage part, said ventilation tube being configured to be located above the pipe when the specific gas is lighter than air and configured to be located below the pipe when the specific gas is heavier than air, wherein the gas sensor is arranged inside the ventilation tube to be located between the gas storage part and the ventilation hole. a pipe holding part comprising first and second pipe holding parts (1a, 1b) that fix the dissolved-gas measurement device to the pipe; a gas storage part that is adapted to store gas that permeates the pipe; and a ventilation tube through which the gas stored in the gas storage part is discharged, the ventilation tube including a gas sensor that measures the concentration of the specific gas flowing into the ventilation tube from the gas storage part, and a ventilation hole that discharges the gas to outside the ventilation tube, characterized in that the ventilation tube is arranged on one-side end of the pipe holding parts (1a, 1b) in a direction of the pipe and perpendicular to the direction of the pipe on a surface of the first pipe pressing portion opposite to a side in contact with the pipe so that mixed gas flows into the ventilation tube from the gas storage part, said ventilation tube being configured to be located above the pipe when the specific gas is lighter than air and configured to be located below the pipe when the specific gas is heavier than air, wherein the gas sensor is arranged inside the ventilation tube to be located between the gas storage part and the ventilation hole.
Intervertebral wedge intended to be placed between two adjacent, upper and lower, cervical vertebrae (V2, V1), comprising a wedge body and means for holding said wedge body in position against said vertebrae, said wedge body comprising: - a spacer part having opposing first and second ends (12a, 12b), a portion of the first end being capable of being inserted between the top edge of the lamina of the lower cervical vertebra and the bottom edge of the lamina of the upper cervical vertebra; - two, upper and lower, flanges (16, 14) connected by the base thereof to the second end of the spacer part and extending from each side thereof, each flange having a front face (16a, 14a) facing towards the spacer part and a rear face (16b, 14b), the front faces (16a, 14a) of the upper and lower flanges being capable of coming to bear against the rear portions of the laminae of the upper and lower vertebrae (V2, V1), respectively; - characterised in that said means for holding the wedge body in position comprise a strap (60; 160) having two ends (60a, 60b; 160a, 160b) and self-locking fastener means (70b, 170) allowing at least one of the ends of the strap to be rigidly connected to the wedge body, said strap (60; 160) being intended to be tightened around the laminae of the upper and lower vertebrae (V2, V1). - a spacer part having opposing first and second ends (12a, 12b), a portion of the first end being capable of being inserted between the top edge of the lamina of the lower cervical vertebra and the bottom edge of the lamina of the upper cervical vertebra; - two, upper and lower, flanges (16, 14) connected by the base thereof to the second end of the spacer part and extending from each side thereof, each flange having a front face (16a, 14a) facing towards the spacer part and a rear face (16b, 14b), the front faces (16a, 14a) of the upper and lower flanges being capable of coming to bear against the rear portions of the laminae of the upper and lower vertebrae (V2, V1), respectively; - characterised in that said means for holding the wedge body in position comprise a strap (60; 160) having two ends (60a, 60b; 160a, 160b) and self-locking fastener means (70b, 170) allowing at least one of the ends of the strap to be rigidly connected to the wedge body, said strap (60; 160) being intended to be tightened around the laminae of the upper and lower vertebrae (V2, V1).
Lubricating mixture, particularly for use in transmissions and engines, containing at least - a mass fraction of ≥ 50% glycerides of natural origin, wherein at least a part of the glycerides is obtained from vegetable fats which contain a mass fraction of at least 30% saturated fatty acids and are solid at a temperature of 20 °C, and - a proportion of fatty acid alkyl esters having 1 to 4 C atoms in the alkyl group, wherein - at least a part of the glycerides are mono- and/or diglycerides which form a mass fraction of ≥ 10% in the mixture, and - the mixture has a liquid phase with a solids content of ≥ 1% by volume in a temperature range from > 10 °C to at least 15 °C, - which is formed from a proportion of the glycerides and/or the fatty acid alkyl esters, and is formed by solid particles having an expansion in the range between 4 μm and 5 mm, and - wherein a proportion of liquid in the mixture amounts to > 40% by volume in the temperature range from > 10 °C to at least 15 °C. - a mass fraction of ≥ 50% glycerides of natural origin, wherein at least a part of the glycerides is obtained from vegetable fats which contain a mass fraction of at least 30% saturated fatty acids and are solid at a temperature of 20 °C, and - a proportion of fatty acid alkyl esters having 1 to 4 C atoms in the alkyl group, - at least a part of the glycerides are mono- and/or diglycerides which form a mass fraction of ≥ 10% in the mixture, and - the mixture has a liquid phase with a solids content of ≥ 1% by volume in a temperature range from > 10 °C to at least 15 °C, - which is formed from a proportion of the glycerides and/or the fatty acid alkyl esters, and is formed by solid particles having an expansion in the range between 4 μm and 5 mm, and - wherein a proportion of liquid in the mixture amounts to > 40% by volume in the temperature range from > 10 °C to at least 15 °C.
A method comprising: generating an access token associated with a particular data asset and representing access rights of one or more users; receiving a first request for access to the particular data asset, wherein the first request indicates a requested quality level of the particular data asset, and wherein the first request for access has a weight based on the requested quality level; determining a number of previously granted access requests based on a weight associated with each previously granted access request, wherein the weight of each previously granted access request is based on a requested quality level; comparing the number of previously granted access requests to a dynamic access threshold number of requests for access to the particular data asset; granting, based upon the access rights of the one or more users, the first request, wherein granting the first request is dependent upon not exceeding the dynamic threshold number of requests for access to the particular data asset; and modifying, based upon granting the first request, the access rights represented by the access token. generating an access token associated with a particular data asset and representing access rights of one or more users; receiving a first request for access to the particular data asset, wherein the first request indicates a requested quality level of the particular data asset, and wherein the first request for access has a weight based on the requested quality level; determining a number of previously granted access requests based on a weight associated with each previously granted access request, wherein the weight of each previously granted access request is based on a requested quality level; comparing the number of previously granted access requests to a dynamic access threshold number of requests for access to the particular data asset; granting, based upon the access rights of the one or more users, the first request, wherein granting the first request is dependent upon not exceeding the dynamic threshold number of requests for access to the particular data asset; and modifying, based upon granting the first request, the access rights represented by the access token.
A method for detecting whether a window of an optical scanner is dirty or clean, comprising: obtaining an image through a window (130 or 401) of an optical scanner (110 or 402) (step 210); transforming the obtained image into a plurality of pixels; characterised by: sampling at least one block of pixels from the plurality of pixels for detection of dirt or debris on the window (steps 220 and 221); wherein the sampling further includes identifying a lowest value and a highest value for the pixels in the at least one block of pixels (step 222), and wherein identifying a lowest value and highest value for the pixels further includes incrementing a speckle counter when a center pixel value is less than the lowest value and a predetermined constant value or when the center pixel value is more than the highest value and the predetermined value; and determining whether the window (130 or 401) of the optical scanner (110 or 402) is dirty or clean based on the sampled image; wherein the determining further includes comparing a speckle counter value associated with the sampling against a threshold value to determine whether the window is dirty or clean. obtaining an image through a window (130 or 401) of an optical scanner (110 or 402) (step 210); transforming the obtained image into a plurality of pixels; characterised by: sampling at least one block of pixels from the plurality of pixels for detection of dirt or debris on the window (steps 220 and 221); wherein the sampling further includes identifying a lowest value and a highest value for the pixels in the at least one block of pixels (step 222), and wherein identifying a lowest value and highest value for the pixels further includes incrementing a speckle counter when a center pixel value is less than the lowest value and a predetermined constant value or when the center pixel value is more than the highest value and the predetermined value; and determining whether the window (130 or 401) of the optical scanner (110 or 402) is dirty or clean based on the sampled image; wherein the determining further includes comparing a speckle counter value associated with the sampling against a threshold value to determine whether the window is dirty or clean. sampling at least one block of pixels from the plurality of pixels for detection of dirt or debris on the window (steps 220 and 221); wherein the sampling further includes identifying a lowest value and a highest value for the pixels in the at least one block of pixels (step 222), and wherein identifying a lowest value and highest value for the pixels further includes incrementing a speckle counter when a center pixel value is less than the lowest value and a predetermined constant value or when the center pixel value is more than the highest value and the predetermined value; and determining whether the window (130 or 401) of the optical scanner (110 or 402) is dirty or clean based on the sampled image; wherein the determining further includes comparing a speckle counter value associated with the sampling against a threshold value to determine whether the window is dirty or clean.