mhurhangee/ep-ind-claims huggingface dataset:
A stent for repairing a leak in a pipe carrying water, gas, and/or oil, the stent comprising: a spring comprising a metal wire rolled into a tubular structure, wherein the spring defines a wave pattern, the spring defining an outer surface and an inner surface, the inner surface defining a void; and a sealing layer of a seal wrapped around the outer surface of the spring, wherein the sealing layer is coupled to the spring by zip ties, the zip ties being looped through spring loops formed on the spring and engaging material of the sealing layer so to secure the sealing layer to the spring, the stent being configurable in a compressed orientation, where the spring is compressed, and in an expanded orientation, where the spring is expanded, the spring biasing the stent to the expanded orientation. a spring comprising a metal wire rolled into a tubular structure, wherein the spring defines a wave pattern, the spring defining an outer surface and an inner surface, the inner surface defining a void; and a sealing layer of a seal wrapped around the outer surface of the spring, wherein the sealing layer is coupled to the spring by zip ties, the zip ties being looped through spring loops formed on the spring and engaging material of the sealing layer so to secure the sealing layer to the spring, the stent being configurable in a compressed orientation, where the spring is compressed, and in an expanded orientation, where the spring is expanded, the spring biasing the stent to the expanded orientation.
A method for a user equipment, UE,, the method comprising: determining an operational frequency band; determining a value L corresponding to the operational frequency band, the value L indicating a maximum number of synchronization signal blocks, SSBs, in a synchronization signal, SS, burst; on a condition that the value L is less than a threshold value, determining a SSB index based on a physical broadcast channel, PBCH, demodulation reference signal, DMRS, sequence; on a condition that the value L is 64, determining the SSB index using both of the PBCH DMRS sequence and a PBCH payload determining a configuration of actually transmitted SSBs using a multi-level two stage compressed indication; and monitoring for one or more actually transmitted SSBs based on the determined configuration of the transmitted SSBs, wherein, on the condition that the value L is 64, the SSB index consists of least significant bits, LSBs, and most significant bits, MSBs, wherein the LSBs for the SSB index is determined based on the PBCH DMRS sequence, and wherein the MSBs for the SSB index is determined based on the PBCH payload. determining an operational frequency band; determining a value L corresponding to the operational frequency band, the value L indicating a maximum number of synchronization signal blocks, SSBs, in a synchronization signal, SS, burst; on a condition that the value L is less than a threshold value, determining a SSB index based on a physical broadcast channel, PBCH, demodulation reference signal, DMRS, sequence; on a condition that the value L is 64, determining the SSB index using both of the PBCH DMRS sequence and a PBCH payload determining a configuration of actually transmitted SSBs using a multi-level two stage compressed indication; and monitoring for one or more actually transmitted SSBs based on the determined configuration of the transmitted SSBs, wherein, on the condition that the value L is 64, the SSB index consists of least significant bits, LSBs, and most significant bits, MSBs, wherein the LSBs for the SSB index is determined based on the PBCH DMRS sequence, and wherein the MSBs for the SSB index is determined based on the PBCH payload.
A method of processing a moving material, the method comprising: moving a material through a first rotary press and a second rotary press spaced from the first rotary press; driving the first and second rotary presses (105a, 105b) via a first drive gear directly coupled to a motor; directly engaging the first drive gear with a first lower spur gear of the first rotary press and a second lower spur gear of the second rotary press, the first drive gear remaining operatively coupled to the first and second lower spur gears of the respective first and second rotary presses (105a, 105b) during operation of the first and second rotary presses (105a, 105b); and controlling the first drive gear to cause the first rotary press to contact the material at a first position during a first time interval and the second rotary press to contact the material at a second position during a second time interval, wherein the first and second time intervals define a cycle of the first and second rotary presses (105a, 105b). moving a material through a first rotary press and a second rotary press spaced from the first rotary press; driving the first and second rotary presses (105a, 105b) via a first drive gear directly coupled to a motor; directly engaging the first drive gear with a first lower spur gear of the first rotary press and a second lower spur gear of the second rotary press, the first drive gear remaining operatively coupled to the first and second lower spur gears of the respective first and second rotary presses (105a, 105b) during operation of the first and second rotary presses (105a, 105b); and controlling the first drive gear to cause the first rotary press to contact the material at a first position during a first time interval and the second rotary press to contact the material at a second position during a second time interval, wherein the first and second time intervals define a cycle of the first and second rotary presses (105a, 105b).
A regenerative fuel cell capable of operating in a power delivery mode in which it generates electrical power by the reaction of electrochemically active species at an anode and a cathode and in an energy storage mode in which it consumes electrical power to generate said electrochemically active species, the cell comprising: • a reversible anode in an anode compartment; • an anolyte in the anode compartment; • a reversible cathode in a cathode compartment; • a catholyte in the cathode compartment; • an anionic membrane separating the anode compartment from the cathode compartment, which membrane is capable of selectively passing anions; and • conduits configured, in said power delivery mode, for carrying electrochemically active species to the anode and to the cathode and, in said energy storage mode, for carrying generated electrochemically active species away from the anode and away from the cathode; wherein the pH of the anolyte and the catholyte is at least 10, such as at least 12, for example at least 13. • a reversible anode in an anode compartment; • an anolyte in the anode compartment; • a reversible cathode in a cathode compartment; • a catholyte in the cathode compartment; • an anionic membrane separating the anode compartment from the cathode compartment, which membrane is capable of selectively passing anions; and • conduits configured, in said power delivery mode, for carrying electrochemically active species to the anode and to the cathode and, in said energy storage mode, for carrying generated electrochemically active species away from the anode and away from the cathode;
Device for measuring the pH of an effluent, said device comprising means for measuring a piece of information representing the pH of said effluent that are to be put into contact with said effluent, and means for modifying the value of the pH of said effluent in proximity to said means for measuring, said means for measuring comprise an ISFET type transistor comprising a source, a drain, a gate with a surface sensitive to the H + ions and that is to be put into contact with said effluent, said means for modifying the value of the pH comprising an anode and a cathode and first means for generating electric current between said anode and said cathode, said device comprising a membrane permeable to the H + ions, said membrane having an inner surface covering and being in contact with said anode and said gate, and an outer surface, said cathode and said outer surface of said membrane being to be put into contact with said effluent, said device comprising means for calibrating said device for measuring, said means for calibrating being configured to calibrate the device for measuring after modification of said pH in the interior of said membrane to at least one known value pH 1 by said means for modifying.
A gaspath component comprising: a body having at least one internal cooling passage; and a metering feature (300B; 300C) integral to said internal cooling passage, the metering feature (300B; 300C) and the body being a unitary structure, wherein the metering feature (300B; 300C) comprises a plate spanning said internal cooling passage and the plate includes a plurality of openings; characterised in that the at least one internal cooling passage includes at least one turbulating feature and the metering feature (300B; 300C) is downstream of at least one of said at least one turbulating features. a body having at least one internal cooling passage; and a metering feature (300B; 300C) integral to said internal cooling passage, the metering feature (300B; 300C) and the body being a unitary structure, wherein the metering feature (300B; 300C) comprises a plate spanning said internal cooling passage and the plate includes a plurality of openings; characterised in that the at least one internal cooling passage includes at least one turbulating feature and the metering feature (300B; 300C) is downstream of at least one of said at least one turbulating features.
A stable freeze-dried pharmaceutical composition for parenteral administration comprising, a) Omadacycline Tosylate in an amount equivalent to 50 mg to 100mg Omadacycline/vial; and b) Arginine in an amount of 50 mg to 200 mg/vial and Sodium bisulfite in an amount of 0.5 mg to 2 mg/vial as stabilizing agents; c) dilute sodium hydroxide solution q.s. and/or d) dilute hydrochloric acid solution q.s.to regulate pH; wherein the pH of the solution, prior to lyophilisation, isin the range of 5.6-6.6. a) Omadacycline Tosylate in an amount equivalent to 50 mg to 100mg Omadacycline/vial; and b) Arginine in an amount of 50 mg to 200 mg/vial and Sodium bisulfite in an amount of 0.5 mg to 2 mg/vial as stabilizing agents; c) dilute sodium hydroxide solution q.s. and/or d) dilute hydrochloric acid solution q.s.to regulate pH;
A method for quantifying amounts of target nucleic acids of a biological sample, comprising: a. preparing a mixture by contacting (i) a plurality of target nucleic acids of a biological sample (targets) with (ii) a known amount of a counterpart nucleic acid for each of the targets (counterparts), wherein the nucleotide sequence of each of the counterparts is substantially identical to its target, and each counterpart comprises a feature that distinguishes each counterpart from its target; b. contacting the mixture with a set of capture nucleic acids, wherein (i) each capture nucleic acid in the set specifically hybridizes to a target and counterpart, (ii) each capture nucleic acid in the set hybridizes with substantially the same strength to the target and counterpart to which it specifically hybridizes, and (iii) the amount of each capture nucleic acid is less than the highest amount of a target of the biological sample, whereby the dynamic range of the targets is compressed; c. determining the amount of each target and counterpart; and d. quantifying the amount of each target by the amount in (c). a. preparing a mixture by contacting (i) a plurality of target nucleic acids of a biological sample (targets) with (ii) a known amount of a counterpart nucleic acid for each of the targets (counterparts), wherein the nucleotide sequence of each of the counterparts is substantially identical to its target, and each counterpart comprises a feature that distinguishes each counterpart from its target; b. contacting the mixture with a set of capture nucleic acids, wherein (i) each capture nucleic acid in the set specifically hybridizes to a target and counterpart, (ii) each capture nucleic acid in the set hybridizes with substantially the same strength to the target and counterpart to which it specifically hybridizes, and (iii) the amount of each capture nucleic acid is less than the highest amount of a target of the biological sample, whereby the dynamic range of the targets is compressed; c. determining the amount of each target and counterpart; and d. quantifying the amount of each target by the amount in (c).
A mold for molding a UV cured article in an inner volume thereof, the mold comprising a mold wall surrounding the inner volume, the mold comprising a UV-transparent polymer and UV radiation deflecting particles immersed in or adhered to a surface of the mold wall, characterized in that said UV-transparent polymer forms a matrix plastic and the UV radiation deflecting particles represent plastic particles, which have a core-shell morphology and which are distributed in the matrix plastic; the core of the plastic particles being crosslinked; the shell of the plastic particles being at least partly bonded to the core of the plastic particles and the shell of the plastic particles being miscible with the matrix plastic.
A new hydrosilane compound, selected from the following compounds: 1-(dimethylsilyl)pyrene, 1-(3-dimethylsilylpropyl)naphthalene, (3-azidopropyl)dimethylsilane, [3-(dimethylsilyl)propyl]acrylamide, 1-(3-dimethylsilylpropyl)-3-methylimidazolium iodide, (3-nitropropyl)dimethylsilane, 4-(dimethylsilyl)butyric acid, ethyl 4-(dimethylsilyl)butyrate, [3-(dimethylsilyl)propyl] diethylphosphate, 4-(dimethylsilyl)butanol, (3-benzoylpropyl)dimethylsilane, 5,6-epoxyhexyldimethylsilane, (3-dimethylsilylpropyl)trifluoroacetamide, N-dimethylhydrosilylpropyliminotriphenylphosphorane, N-methyldihydrosilylpropyliminotriphenylphosphorane, 4-dimethylsilylphenylmagnesium bromide, 4-(1,3-dithian-2-yl)dimethylsilylbenzene, and triethyl-3-(dimethylsilylpropyl)ammonium bromide.
In vitro use of a cell-penetrating conjugate system or a formulation incorporating the same for transporting a cargo molecule across a cellular membrane of mammalian cells; wherein the conjugate system is 4-hydroxybutyl L-tryptophanate represented by the following formula:
Central belt system of a commissioning unit, with - article shafts arranged in an A-shaped pattern, wherein one ejector is provided per article shaft. - a central belt moving in the direction of a pull-otf container handling system, - a central control unit to activate ejectors of the article shafts in such a timely manner that all the articles that belong to one commissioning order can be collected on the central belt in a virtual window and can be released, optionally via the intermediary of an ascending belt, into an associated order container of the container handling system, - a variably adjustable camera system in the area of the end of the central belt with first cameras and second cameras, - a variably adjustable illumination system in the area of the end of the central belt, - an automatic control system, which is in connection with the central control unit, with a connected image processing unit for the articles to be controlled on the moving central belt, wherein said image processing unit is supplied with reliable data of articles to be controlled by said camera system (9, 10) and by said illumination system, wherein said first cameras of said camera system (9, 10) and said illumination system are set and configured and the articles to be controlled, which are arranged chaotically on the central belt, are ejected or transferred by the ejectors such that optical shadow formation on the central belt is just prevented, and said first cameras can detect the articles in the area of the end of the central belt, which articles are located on the central belt, wherein said second cameras of the camera system (9, 10) are installed and configured directly after the central belt such that the information of the articles, which is located on the underside, is read when the articles, following a trajectory or sliding on an oblique plane, drop or slide into the order container or another pull-off system. - article shafts arranged in an A-shaped pattern, wherein one ejector is provided per article shaft. - a central belt moving in the direction of a pull-otf container handling system, - a central control unit to activate ejectors of the article shafts in such a timely manner that all the articles that belong to one commissioning order can be collected on the central belt in a virtual window and can be released, optionally via the intermediary of an ascending belt, into an associated order container of the container handling system, - a variably adjustable camera system in the area of the end of the central belt with first cameras and second cameras, - a variably adjustable illumination system in the area of the end of the central belt, - an automatic control system, which is in connection with the central control unit, with a connected image processing unit for the articles to be controlled on the moving central belt,
A method for utilising domestic and biodegradable waste and communal waste water, in which the waste is washed with the waste water and comminuted at the same time, so that the mixture obtained in this manner is divided into a solid and a liquid fraction, the solid fraction is subjected to the subsequent energetic utilisation of a biological drying process, the liquid fraction is fed to a communal waste water treatment plant and is biologically cleaned, producing sludge, and that the excess sludge produced in the waste water treatment plant is fed to a digestion tank to produce biogas, characterised in that the washing of the waste is integrated into a communal waste water treatment plant that is already in operation, and the liquid fraction produced during washing either flows back into a raw waste water collection tank or directly into the waste water treatment stages.
Glutamine enriched nutritional composition for use in providing nutrition to a low birth weight and/or preterm infant for use in improving neurocognitive functioning at an age from 4 to 12 years.
A rolling type vehicle having a pair of left and right front wheels (2L, 2R) and having a vehicle body capable of rolling, the rolling type vehicle comprising: a pair of left and right arm members (21, 23) which are supported in a swingable manner by the vehicle body on inner sides in a transverse direction and which support the left and right front wheels (2L, 2R) in a steerable manner on outer sides in the transverse direction, wherein as viewed from a direction along an axis (C2, C3) of a support shaft (22, 24) which supports the left and right arm members (21, 23) on the vehicle body, those base portions (21a, 21b, 23a, 23b) of the left and right arm members (21, 23) which are rotatably supported on the vehicle body side overlap with each other, whereas a swinging center axis of the base portion (21aL, 21bL) of the left arm and a swinging center axis of the base portion (21aR, 21bR) of the right arm, of the base portions (21a, 21b, 23a, 23b) of the left and right arm members (21, 23), are out of alignment with each other. a pair of left and right arm members (21, 23) which are supported in a swingable manner by the vehicle body on inner sides in a transverse direction and which support the left and right front wheels (2L, 2R) in a steerable manner on outer sides in the transverse direction, wherein as viewed from a direction along an axis (C2, C3) of a support shaft (22, 24) which supports the left and right arm members (21, 23) on the vehicle body, those base portions (21a, 21b, 23a, 23b) of the left and right arm members (21, 23) which are rotatably supported on the vehicle body side overlap with each other, whereas a swinging center axis of the base portion (21aL, 21bL) of the left arm and a swinging center axis of the base portion (21aR, 21bR) of the right arm, of the base portions (21a, 21b, 23a, 23b) of the left and right arm members (21, 23), are out of alignment with each other.
Method for regenerating a particle filter, in which loading and regeneration occur respectively over at least part of the service life of the particle filter within successive working intervals (A to E), and the regeneration is initiated taking into account a pressure difference Δp across the particle filter, which is determined by means of the loading with soot and ash, characterized in that a triggering pressure difference Δp Ausl is predefined as a triggering limit for the regeneration of a working interval (A - E) and is obtained dynamically for a respective working interval (A - E) from the sum of the ash pressure difference Δp Asch given by the ash loading at the end of a regeneration step (A' - D') of the preceding working interval (A - D) and a standardized soot loading pressure difference Δp norm of the working interval to be regenerated, wherein the exceeding of the triggering limit Δp Ausl by the pressure difference Δp tats corresponding to the actual soot and ash loading is used in relation to a respective working interval (A - D) by means of the particle filter as a signal for the initiation of the regeneration, and wherein the standardized soot loading pressure difference Δp norm is obtained as a value, corrected taking into account operating parameters, of the soot loading pressure difference Δp ist corresponding to the actual soot loading, and the exhaust gas mass flow ṁ, the temperature T in the exhaust gas train and the exhaust gas pressure p 0 upstream of the particle filter are taken into account as operating parameters correcting on the basis of operating values.
An ultrasound flow meter arranged to measure a fluid flow rate by means of ultrasound, the meter comprising - a housing, having a through-going opening arranged for passage of the fluid, and - a unit comprising a measuring tube element and a reflector arrangement for mounting into the housing from one end of the through-going opening, wherein the reflector arrangement is a polymer unit with first and second reflector holders monolithically formed together with an intermediate member, each reflector holder comprises a reflector arranged to reflect an ultrasound signal, wherein the reflector arrangement comprises - first locking means (L1, 226, 228) comprising an indentation or a protrusion arranged for mutual engagement with at least one corresponding locking means on the separate measuring tube element, so as to allow the measuring tube element to be mounted on the reflector arrangement and locked by a snapping mechanism, and wherein the unit comprising the measuring tube element and the reflector arrangement comprises - second locking means (L2, 225) comprising an indentation or a protrusion arranged for mutual engagement with at least one corresponding locking means positioned inside the through-going opening of the housing, so as to allow the unit to be substantially locked in position within the through-going opening of the housing after mounting therein. - a housing, having a through-going opening arranged for passage of the fluid, and - a unit comprising a measuring tube element and a reflector arrangement for mounting into the housing from one end of the through-going opening, - first locking means (L1, 226, 228) comprising an indentation or a protrusion arranged for mutual engagement with at least one corresponding locking means on the separate measuring tube element, so as to allow the measuring tube element to be mounted on the reflector arrangement and locked by a snapping mechanism, and - second locking means (L2, 225) comprising an indentation or a protrusion arranged for mutual engagement with at least one corresponding locking means positioned inside the through-going opening of the housing, so as to allow the unit to be substantially locked in position within the through-going opening of the housing after mounting therein.