mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a User Equipment, in the following also referred to as UE, the method comprising: initiating a random access, in the following also referred to as RA, procedure ; receiving a RA response during the RA procedure, wherein the RA response indicates a first uplink, in the following also referred to as UL, grant for the UE to perform a Msg3 transmission by a specific hybrid automatic repeat request, in the following also referred to as HARQ, process ; receiving a second UL grant for the UE to perform a specific transmission, wherein the specific transmission is to be performed during the RA procedure ; and if the specific transmission is not performed by the specific HARQ process used for the Msg3 transmission then performing the specific transmission, and if the specific transmission is to be performed by the specific HARQ process used for the Msg3 transmission, wherein the Msg3 transmission and the specific transmission are not overlapped in a time domain, then determining whether to perform the specific transmission based on one or more of: whether the second UL grant is provided by a radio resource control, in the following also referred to as RRC, message or is provided by a Physical Downlink Control Channel, in the following also referred to as PDCCH, a triggering event of the RA procedure, a logical channel priority of data to be transmitted, and whether a logical channel for data to be carried by the specific transmission is for a Ultra-Reliable and Low Latency Communication, in the following also referred to as URLLC, service. initiating a random access, in the following also referred to as RA, procedure ; receiving a RA response during the RA procedure, wherein the RA response indicates a first uplink, in the following also referred to as UL, grant for the UE to perform a Msg3 transmission by a specific hybrid automatic repeat request, in the following also referred to as HARQ, process ; receiving a second UL grant for the UE to perform a specific transmission, wherein the specific transmission is to be performed during the RA procedure ; and if the specific transmission is not performed by the specific HARQ process used for the Msg3 transmission then performing the specific transmission, and if the specific transmission is to be performed by the specific HARQ process used for the Msg3 transmission, wherein the Msg3 transmission and the specific transmission are not overlapped in a time domain, then determining whether to perform the specific transmission based on one or more of: whether the second UL grant is provided by a radio resource control, in the following also referred to as RRC, message or is provided by a Physical Downlink Control Channel, in the following also referred to as PDCCH, a triggering event of the RA procedure, a logical channel priority of data to be transmitted, and whether a logical channel for data to be carried by the specific transmission is for a Ultra-Reliable and Low Latency Communication, in the following also referred to as URLLC, service.
A method for reprocessing an internal channel of a medical device , the method comprising: (a) activating a first pump to deliver a detergent to the internal channel for a first predetermined duration; (b) activating a second pump to deliver water to the internal channel to rinse out the detergent for a second predetermined duration; (c) activating a third pump to deliver pressurized air to the internal channel to purge out any remaining water or detergent contained within the internal channel for a third predetermined duration; (d) activating a fourth pump to deliver a predetermined volume of a disinfectant to the internal channel; (e) reactivating the third pump to deliver pressurized air to the internal channel to purge out the disinfectant from the internal channel into a chamber; (f) reactivating the fourth pump to deliver an additional volume of the disinfectant to the internal channel; and (g) reactivating the third pump to deliver pressurized air to the internal channel to purge out the additional volume of the disinfectant from the internal channel into the chamber. (a) activating a first pump to deliver a detergent to the internal channel for a first predetermined duration; (b) activating a second pump to deliver water to the internal channel to rinse out the detergent for a second predetermined duration; (c) activating a third pump to deliver pressurized air to the internal channel to purge out any remaining water or detergent contained within the internal channel for a third predetermined duration; (d) activating a fourth pump to deliver a predetermined volume of a disinfectant to the internal channel; (e) reactivating the third pump to deliver pressurized air to the internal channel to purge out the disinfectant from the internal channel into a chamber; (f) reactivating the fourth pump to deliver an additional volume of the disinfectant to the internal channel; and (g) reactivating the third pump to deliver pressurized air to the internal channel to purge out the additional volume of the disinfectant from the internal channel into the chamber.
A multilayer film comprising: a first film comprising at least a first layer and a second layer wherein: the first layer comprises a first high density polyethylene (HDPE) having a density of from 0.935 to 0.965 g/cc and a melt index I 2 of 0.3 to 2.0 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190 °C and 2.16 kg load; and the second layer comprises a polyolefin plastomer having a density of from 0.885 to 0.910 g/cc; and a second film extrusion coated onto the first layer of the first film, the second film comprising a second high density polyethylene (HDPE) having a density of from 0.945 to 0.965 g/cc and a melt index I 2 of 4.0 to 20.0 g/10 min, wherein the density of the first HDPE, the polyolefin plastomer, and the second HDPE are measured in accordance with ASTM D792, Method B, wherein the multilayer film is free of adhesives; and wherein the second film has a gloss of from 65% to 95% at 60° according to ASTM D2457. a first film comprising at least a first layer and a second layer wherein: the first layer comprises a first high density polyethylene (HDPE) having a density of from 0.935 to 0.965 g/cc and a melt index I 2 of 0.3 to 2.0 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190 °C and 2.16 kg load; and the second layer comprises a polyolefin plastomer having a density of from 0.885 to 0.910 g/cc; and the first layer comprises a first high density polyethylene (HDPE) having a density of from 0.935 to 0.965 g/cc and a melt index I 2 of 0.3 to 2.0 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190 °C and 2.16 kg load; and the second layer comprises a polyolefin plastomer having a density of from 0.885 to 0.910 g/cc; and a second film extrusion coated onto the first layer of the first film, the second film comprising a second high density polyethylene (HDPE) having a density of from 0.945 to 0.965 g/cc and a melt index I 2 of 4.0 to 20.0 g/10 min, wherein the density of the first HDPE, the polyolefin plastomer, and the second HDPE are measured in accordance with ASTM D792, Method B, wherein the multilayer film is free of adhesives; and wherein the second film has a gloss of from 65% to 95% at 60° according to ASTM D2457.
A composition comprising i 2 wt. % to 30 wt. % of hydrogen peroxide, ii water, iii 1 wt. % to 10 wt. % poly(ethylene oxide)-poly(propylene oxide) block copolymer, iv 0,01 wt. % to 10 wt. % of a salt of a co-polymer comprising a copolymer of an ammonium or alkali salt of acryloyldimethyltaurate and vinylpyrrolidone, v 30 wt. % to 95 wt. % poly(ethylene oxide) homopolymer, vi 0,01 wt. % to 5 wt. % stabilizer system selected from a) phosphorus containing stabilizer or mixture of phosphorus containing stabilizers selected from the group consisting of pyrophosphates, and b) stannate stabilizer, and/or c) alkali hydroxide, base and/or buffers, and vii 0,01 wt. % to 1 wt. % of a chelating agent or a mixture of chelating agents, wherein the composition comprises in total 100 wt. %. i 2 wt. % to 30 wt. % of hydrogen peroxide, ii water, iii 1 wt. % to 10 wt. % poly(ethylene oxide)-poly(propylene oxide) block copolymer, iv 0,01 wt. % to 10 wt. % of a salt of a co-polymer comprising a copolymer of an ammonium or alkali salt of acryloyldimethyltaurate and vinylpyrrolidone, v 30 wt. % to 95 wt. % poly(ethylene oxide) homopolymer, vi 0,01 wt. % to 5 wt. % stabilizer system selected from a) phosphorus containing stabilizer or mixture of phosphorus containing stabilizers selected from the group consisting of pyrophosphates, and b) stannate stabilizer, and/or c) alkali hydroxide, base and/or buffers, and a) phosphorus containing stabilizer or mixture of phosphorus containing stabilizers selected from the group consisting of pyrophosphates, and b) stannate stabilizer, and/or c) alkali hydroxide, base and/or buffers, and vii 0,01 wt. % to 1 wt. % of a chelating agent or a mixture of chelating agents, wherein the composition comprises in total 100 wt. %.
A method for providing a desired amount of cooling to a quantity of food product in a vessel within a given period of time, comprising: (A) feeding cryogenic liquid which is not carbon dioxide from a cryogen source to a plurality of nozzle openings and out of the plurality of nozzle openings into a vessel directly into a formable mass of food product in the vessel at a flow rate effective to provide from each nozzle up to 2004.7 kJ (1900 BTUs) of refrigeration to the formable mass of food product per minute from the cryogenic liquid delivered from each nozzle, while an impeller is rotated at a rate of 3 to 45 rpm (rotations per minute) to move the food product past the nozzle openings, wherein each nozzle opening is in direct contact with the food product and is at the interior surface of the vessel or is between the interior surface and the path of the impeller, wherein the pressure drop encountered by the cryogenic liquid between the cryogen source and the nozzle openings is up to 69.0 kPa (10 pounds per square inch) and wherein the number of nozzle openings is determined by the overall desired amount of cooling to be provided to the quantity of food product being cooled, and by the length of time within which the cooling is to be achieved.; and (B) moving the formable mass of food product past each nozzle opening at a rate of 0.2 to 3.0 meter per second so that the mass of food product remains formable as it is being cooled by contact with the cryogenic liquid. (A) feeding cryogenic liquid which is not carbon dioxide from a cryogen source to a plurality of nozzle openings and out of the plurality of nozzle openings into a vessel directly into a formable mass of food product in the vessel at a flow rate effective to provide from each nozzle up to 2004.7 kJ (1900 BTUs) of refrigeration to the formable mass of food product per minute from the cryogenic liquid delivered from each nozzle, while an impeller is rotated at a rate of 3 to 45 rpm (rotations per minute) to move the food product past the nozzle openings, wherein each nozzle opening is in direct contact with the food product and is at the interior surface of the vessel or is between the interior surface and the path of the impeller, wherein the pressure drop encountered by the cryogenic liquid between the cryogen source and the nozzle openings is up to 69.0 kPa (10 pounds per square inch) and wherein the number of nozzle openings is determined by the overall desired amount of cooling to be provided to the quantity of food product being cooled, and by the length of time within which the cooling is to be achieved.; and (B) moving the formable mass of food product past each nozzle opening at a rate of 0.2 to 3.0 meter per second so that the mass of food product remains formable as it is being cooled by contact with the cryogenic liquid.
A device for reinforcing a cross-member of a driver compartment of a motor vehicle adapted to extend transversely in the vehicle under an upper portion of a dashboard supported by said cross-member, said device comprising at least one reinforcing leg adapted to be fastened to said cross-member to connect said cross-member to a structural element of the vehicle arranged at the floor of the vehicle, said reinforcing leg being provided with a lower end provided with at least one fastening through-orifice with an axis parallel to the transverse direction of the vehicle, in which a threaded rod is received allowing making a bolted connection along said axis to connect said reinforcing leg to said structural element, said fastening through-orifice has a contour partially closed on itself, which opens in the direction of a lower free edge of said lower end of said reinforcing leg, on a notch opening into said lower free edge , said notch has a widthwise dimension adapted to enable the passage of said threaded rod along said notch.
JNK inhibitor comprising an inhibitory peptide sequence according to the following general formula: X1-X2-X3-R-X4-X5-X6-L-X7-L-X8 (SEQ ID NO: 1), wherein X1 is an amino acid selected from amino acids R, P, Q and r, wherein X2 is an amino acid selected from amino acids R, P, G and r, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue, with the proviso that one, two or three of the amino acids selected from the group consisting of X1, X2, X3, X5, X7 and X8 is/are a D-amino acid(s). wherein X1 is an amino acid selected from amino acids R, P, Q and r, wherein X2 is an amino acid selected from amino acids R, P, G and r, wherein X3 is an amino acid selected from amino acids K, R, k and r, wherein X4 is an amino acid selected from amino acids P and K, wherein X5 is an amino acid selected from amino acids T, a, s, q, k or is absent, wherein X6 is an amino acid selected from amino acids T, D and A, wherein X7 is an amino acid selected from amino acids N, n, r and K; and wherein X8 is an amino acid selected from F, f and w, and wherein an amino acid residue given in capital letters indicates an L-amino acid residue, while an amino acid residue given in small letters indicates a D amino acid residue, with the proviso that one, two or three of the amino acids selected from the group consisting of X1, X2, X3, X5, X7 and X8 is/are a D-amino acid(s).
A method for reducing surface cracks of a casting slab by ferrite phase, wherein in production of metallurgical continuous casting, a surface layer temperature of a casting slab is controlled to keep at an austenite-to-ferrite transition temperature range of 900°C-600°C for 0.44-35 min, thereby obtaining a high-proportion ferrite phase so that the proportion of the ferrite phase on a surface layer of the casting slab reaches 35% or more before a straightening point of a casting machine; wherein the surface layer temperature of the casting slab is controlled in a bow section of the casting machine and a second cooling rate of the ferrite phase of the steel determined by a continuous cooling characteristic CCT curve of steel is controlled to 3-0.05°C/s.
A display device, comprising: a pixel electrode portion electrically connected to a thin film transistor including a gate electrode ; a semiconductor light emitting device configured to emit light to form an individual pixel, and including a conductive electrode ; a conductive adhesive layer adhered to the semiconductor light emitting device , and configured to electrically connect the pixel-electrode portion to the conductive electrode; an interlayer insulating layer on the thin film transistor ; and a buffer layer including an elastic material and disposed between the interlayer insulating layer and the conductive adhesive layer , wherein one surface of the buffer layer is a surface covered by the conductive adhesive layer, and another surface of the buffer layer that is an opposite surface to the one surface is a portion for covering the interlayer insulating layer, wherein the pixel electrode portion comprises a first pixel electrode disposed on the interlayer insulating layer of the thin film transistor , and a second pixel electrode extended to one surface of the buffer layer through the buffer layer from the first pixel electrode. a pixel electrode portion electrically connected to a thin film transistor including a gate electrode ; a semiconductor light emitting device configured to emit light to form an individual pixel, and including a conductive electrode ; a conductive adhesive layer adhered to the semiconductor light emitting device , and configured to electrically connect the pixel-electrode portion to the conductive electrode; an interlayer insulating layer on the thin film transistor ; and a buffer layer including an elastic material and disposed between the interlayer insulating layer and the conductive adhesive layer , wherein one surface of the buffer layer is a surface covered by the conductive adhesive layer, and another surface of the buffer layer that is an opposite surface to the one surface is a portion for covering the interlayer insulating layer, wherein the pixel electrode portion comprises a first pixel electrode disposed on the interlayer insulating layer of the thin film transistor , and a second pixel electrode extended to one surface of the buffer layer through the buffer layer from the first pixel electrode.
A method for detecting fetal-derived DNA in a blood sample, comprising: (i) subjecting a blood sample from peripheral blood of a pregnant woman to an isolating step, so as to obtain the exosomal DNA, wherein the exosomal DNA comprises fetal-derived DNA and (ii) detecting the presence of the fetal-derived DNA in the exosomal DNA, wherein the presence of the fetal-derived DNA in the exosomal DNA is detected by at least one technique selected from PCR amplification, sequence-specific probe capturing technology and high-throughput sequencing technology. (i) subjecting a blood sample from peripheral blood of a pregnant woman to an isolating step, so as to obtain the exosomal DNA, wherein the exosomal DNA comprises fetal-derived DNA and (ii) detecting the presence of the fetal-derived DNA in the exosomal DNA, wherein the presence of the fetal-derived DNA in the exosomal DNA is detected by at least one technique selected from PCR amplification, sequence-specific probe capturing technology and high-throughput sequencing technology.
A frozen food composition comprising: (a) heterotrophically produced algal flour, which is a powdered homogenate of microalgal biomass containing mechanically lysed cells in which more than 50% of the cells have been disrupted such that the intracellular components of the cell are no longer completely enclosed within the cell membrane, said algal flour comprising less than 200 ppm chlorophyll and more than 20% by dry weight triglyceride oil, wherein less than 5% by weight of the oil is docosahexaenoic acid (DHA); (b) at least one additional edible ingredient; and (c) gas; wherein the frozen food composition comprises a continuous phase and a discontinuous gas phase, and wherein the percent of the volume of the food contributed by the gas is between 1% and 50%. (a) heterotrophically produced algal flour, which is a powdered homogenate of microalgal biomass containing mechanically lysed cells in which more than 50% of the cells have been disrupted such that the intracellular components of the cell are no longer completely enclosed within the cell membrane, said algal flour comprising less than 200 ppm chlorophyll and more than 20% by dry weight triglyceride oil, wherein less than 5% by weight of the oil is docosahexaenoic acid (DHA); (b) at least one additional edible ingredient; and (c) gas;
HBAR resonator comprising a substrate (S 1 , S 2 , S 3 , S 4 ), a piezoelectric transducer (T 1 , T 2 , T 3 , T 4 ), said transducer comprising at least one piezoelectric layer, at least two electrodes and exhibiting resonance frequencies Fi corresponding to wavelengths λi, the resonator further comprising: - an amplification structure comprising at least one resonant cavity (C R1 , C R2 , C R3 , C R4 ) arranged on the substrate between said transducer and said substrate or in said substrate, this amplification structure being suitable for mechanically resonating at at least one of the resonance frequencies Fi of said transducer corresponding to said wavelength λi, so as to amplify the amplitude of the mechanical resonance generated at said frequency. - the resonant cavity exhibiting an acoustic transmission spectrum characterized by relatively low levels, typically being able to be less than approximately 0.5and this over a frequency range surrounding at least the working frequencies Fi, but with localized transmission peaks at the frequency Fi of interest; - said cavity exhibiting a thickness substantially equal to nλi/2 with n being a non-zero integer characterized in that : - the resonant cavity consists of a half-wave layer of AlN bracketed by two partial Bragg mirrors consisting of quarter-wave layers of SiO 2 and AlN or - the resonant cavity is defined in said substrate, and is delimited by basic mirror structures reflecting at said frequency Fi (M R1 , M R2 ) buried in said substrate, these structures forming part of said resonant cavity. - an amplification structure comprising at least one resonant cavity (C R1 , C R2 , C R3 , C R4 ) arranged on the substrate between said transducer and said substrate or in said substrate, this amplification structure being suitable for mechanically resonating at at least one of the resonance frequencies Fi of said transducer corresponding to said wavelength λi, so as to amplify the amplitude of the mechanical resonance generated at said frequency. - the resonant cavity exhibiting an acoustic transmission spectrum characterized by relatively low levels, typically being able to be less than approximately 0.5and this over a frequency range surrounding at least the working frequencies Fi, but with localized transmission peaks at the frequency Fi of interest; - said cavity exhibiting a thickness substantially equal to nλi/2 with n being a non-zero integer - the resonant cavity consists of a half-wave layer of AlN bracketed by two partial Bragg mirrors consisting of quarter-wave layers of SiO 2 and AlN or - the resonant cavity is defined in said substrate, and is delimited by basic mirror structures reflecting at said frequency Fi (M R1 , M R2 ) buried in said substrate, these structures forming part of said resonant cavity.
A system for planning and performing an interventional procedure, comprising: a storage device configured to store an image which includes a plurality of targets for the interventional procedure; a spatial determination device configured to determine distances between each of the targets; a planning device configured to compare the distances between each of the targets and generate a signal if at least one of the distances is less than a minimum threshold ; and an image generation device configured to generate on a display device a graphical representation which shows distances between a user-selected target with respect to other targets of the plurality of targets. a storage device configured to store an image which includes a plurality of targets for the interventional procedure; a spatial determination device configured to determine distances between each of the targets; a planning device configured to compare the distances between each of the targets and generate a signal if at least one of the distances is less than a minimum threshold ; and an image generation device configured to generate on a display device a graphical representation which shows distances between a user-selected target with respect to other targets of the plurality of targets.