mhurhangee/ep-ind-claims huggingface dataset:
A method of preparation of a hydrogel hybrid material, characterized in that it comprises the following steps: a) silica particles functionalized with amine groups are obtained using a sol-gel method, b) the silica particles functionalized with amine groups obtained in step a) are suspended in sol comprising a mixture of solutions of collagen, chitosan and hyaluronic acid, preferably in a collagen: chitosan: hyaluronic acid weight ratio of 50: 40: 10, wherein preferably the content of the functionalized silica particles in the sol is no less than 1.9 mg/mL of the sol, preferably from 1.9 to 3.8 mg/mL of the sol, c) the suspension obtained in step b) is subjected to crosslinking reaction with genipin. a) silica particles functionalized with amine groups are obtained using a sol-gel method, b) the silica particles functionalized with amine groups obtained in step a) are suspended in sol comprising a mixture of solutions of collagen, chitosan and hyaluronic acid, preferably in a collagen: chitosan: hyaluronic acid weight ratio of 50: 40: 10, wherein preferably the content of the functionalized silica particles in the sol is no less than 1.9 mg/mL of the sol, preferably from 1.9 to 3.8 mg/mL of the sol, c) the suspension obtained in step b) is subjected to crosslinking reaction with genipin.
A laser welding device configured to weld two overlapping workpieces (31, 32) by emitting a laser beam to the workpieces (31, 32), the laser welding device comprising: an irradiation unit configured to emit, to the workpieces (31, 32), the laser beam and a measurement beam having a wavelength different from a wavelength of the laser beam; a measurement unit configured to measure a depth from a predetermined reference surface based on the measurement beam emitted by the irradiation unit and reflected from the workpieces (31, 32); and an irradiation position switching part (28, 29, 40) configured to switch an irradiation position of the measurement beam between a keyhole position coaxial with an optical axis of the laser beam and a position of a weld bead behind a center of the optical axis of the laser beam in a welding direction, wherein the weld bead has a surface that has a recess, and characterized in that the laser welding device further comprises a determination unit configured to determine an amount of a gap between the two workpieces (31, 32) based on a measured value of a recess depth measured at the position of the weld bead by comparing the measured value with a recess depth measured in advance while no gap is formed between the two workpieces (31, 32), wherein the laser welding device further comprises a correction unit configured to correct, based on the amount of the gap, a measured value of a penetration depth measured at the keyhole position. an irradiation unit configured to emit, to the workpieces (31, 32), the laser beam and a measurement beam having a wavelength different from a wavelength of the laser beam; a measurement unit configured to measure a depth from a predetermined reference surface based on the measurement beam emitted by the irradiation unit and reflected from the workpieces (31, 32); and an irradiation position switching part (28, 29, 40) configured to switch an irradiation position of the measurement beam between a keyhole position coaxial with an optical axis of the laser beam and a position of a weld bead behind a center of the optical axis of the laser beam in a welding direction, wherein the weld bead has a surface that has a recess, and characterized in that the laser welding device further comprises a determination unit configured to determine an amount of a gap between the two workpieces (31, 32) based on a measured value of a recess depth measured at the position of the weld bead by comparing the measured value with a recess depth measured in advance while no gap is formed between the two workpieces (31, 32), wherein the laser welding device further comprises a correction unit configured to correct, based on the amount of the gap, a measured value of a penetration depth measured at the keyhole position.
A biphasic microalgae extract comprising 15-95 wt.% of an aqueous phase and 5-85 wt.% of an oil phase, said extract containing at least 1% by weight of total fatty acids of ω3-fatty acids selected from the group consisting of eicosapentaenoic acid, docosahexaenoic acid and combinations thereof, said extract further being characterized in that it contains: • 40-100% by weight of the oil phase of lipids selected from triglycerides, diglycerides, monoglycerides, phosphatides, free fatty acids and combinations thereof; • 0.01-10% of carotenoids by weight of the oil phase; • 0.5-10% of sodium chloride by weight of the aqueous phase; • 0-3 wt.% of non-dissolved material other than dispersed droplets of aqueous phase or oil phase; and • 0-10% of C 1-5 monoalcohol by weight of the aqueous phase. • 40-100% by weight of the oil phase of lipids selected from triglycerides, diglycerides, monoglycerides, phosphatides, free fatty acids and combinations thereof; • 0.01-10% of carotenoids by weight of the oil phase; • 0.5-10% of sodium chloride by weight of the aqueous phase; • 0-3 wt.% of non-dissolved material other than dispersed droplets of aqueous phase or oil phase; and • 0-10% of C 1-5 monoalcohol by weight of the aqueous phase.
A plant, wherein said plant is transformed with at least a first nucleotide sequence selected from the group consisting of: a) the nucleotide sequence SEQ ID NO: 1; b) a nucleotide sequence having at least 85% sequence identity to SEQ ID NO: 1, wherein said nucleotide sequence increases nitrogen use in a plant; c) the nucleotide sequence encoding the amino acid sequence of SEQ ID NO: 2; and, d) a nucleotide sequence encoding an amino acid sequence having at least 85% sequence identity to the amino acid sequence of SEQ ID NO: 2, wherein said nucleotide sequence increases nitrogen use in a plant. a) the nucleotide sequence SEQ ID NO: 1; b) a nucleotide sequence having at least 85% sequence identity to SEQ ID NO: 1, wherein said nucleotide sequence increases nitrogen use in a plant; c) the nucleotide sequence encoding the amino acid sequence of SEQ ID NO: 2; and, d) a nucleotide sequence encoding an amino acid sequence having at least 85% sequence identity to the amino acid sequence of SEQ ID NO: 2, wherein said nucleotide sequence increases nitrogen use in a plant.
A liquid discharge apparatus comprising: a head configured to discharge a liquid; a circulation passage coupled to the head, the circulation passage through which a temperature-controlled liquid circulates; a radiator including a fan and configured to cool the temperature-controlled liquid; a head drive board mounted with a power amplification unit configured to amplify a drive waveform applied to the head; an ambient temperature sensor configured to detect an ambient temperature of the radiator; a liquid temperature sensor configured to detect a temperature of the temperature-controlled liquid at an inlet of the radiator; and a controller configured to control at least one of a rotation of the fan of the radiator and a heating waveform applied to the head drive board, based on a target temperature of the temperature-controlled liquid, a detected ambient temperature of the radiator, and a detected temperature of the temperature-controlled liquid at the inlet of the radiator, characterized in that the circulation passage and the head drive board are thermally coupled with each other. a head configured to discharge a liquid; a circulation passage coupled to the head, the circulation passage through which a temperature-controlled liquid circulates; a radiator including a fan and configured to cool the temperature-controlled liquid; a head drive board mounted with a power amplification unit configured to amplify a drive waveform applied to the head; an ambient temperature sensor configured to detect an ambient temperature of the radiator; a liquid temperature sensor configured to detect a temperature of the temperature-controlled liquid at an inlet of the radiator; and a controller configured to control at least one of a rotation of the fan of the radiator and a heating waveform applied to the head drive board, based on a target temperature of the temperature-controlled liquid, a detected ambient temperature of the radiator, and a detected temperature of the temperature-controlled liquid at the inlet of the radiator, characterized in that the circulation passage and the head drive board are thermally coupled with each other.
A process for making crystalline gefitinib Form 1 of formula, characterized by a XRPD powder diffraction pattern comprising the peaks at about 7.14, 11.26, 14.25, 15.86, 24.33 and 26.40 degrees 2 theta (±0.2 degrees 2 theta), when measured with CuKα1 radiation (λ = 1.54060 Å), the process comprising the steps: 1. Dissolving gefitinib in a solvent mixture comprising water and an alcohol selected form ethanol and butanol, wherein the ratio between water and alcohol is between 1:16 and 1:25 (vol:vol); 2. Isolating gefitinib form 1. 1. Dissolving gefitinib in a solvent mixture comprising water and an alcohol selected form ethanol and butanol, wherein the ratio between water and alcohol is between 1:16 and 1:25 (vol:vol); 2. Isolating gefitinib form 1.
A transparent substrate, especially glass substrate, provided with a thin-film multilayer comprising an alternation of n functional layers having reflection properties in the infrared and/or in solar radiation and n+1 coatings composed of one or more layers of dielectric material, in such a way that each functional layer is placed between two coatings, characterized in that at least one of the layers of dielectric material is based on a mixed silicon zirconium nitride, the Si/Zr atomic percentage ratio being between 4.6 and 5 and its refractive index being between 2.15 and 2.3.
A method for monitoring a fleet of connected objects, which are equipped with a similar physical hardware comprising a processing circuit comprising a processor connected to a memory and to an interface for communicating with a network, the processing circuit comprising a plurality of hardware performance counters characterising an operation of the processing circuit, the method comprising: a) selecting at least one part of the plurality of HPCs, b) repeatedly reading, for each connected object, the HPCs selected so as to obtain, for each HPC selected of each connected object, a time series of values associated with said HPC and with said connected object, c) for each connected object, for each time series of values obtained, obtaining at least one vector of statistical values based on the time series of values, said vector of statistical values obtained being associated with said time series of values and with said connected object, d) obtaining, for each connected object, an abnormality score based on a comparison of the vectors of statistical values associated with said object with all the vectors of statistical values, the abnormality scores being indicative of a mean deviation of the vectors of statistical values associated with said object relative to all the vectors of statistical values, and e) in case of detection of an abnormality score of a given connected object deviating beyond a predefined threshold, detecting an anomaly of computing operation of said given connected object. a) selecting at least one part of the plurality of HPCs, b) repeatedly reading, for each connected object, the HPCs selected so as to obtain, for each HPC selected of each connected object, a time series of values associated with said HPC and with said connected object, c) for each connected object, for each time series of values obtained, obtaining at least one vector of statistical values based on the time series of values, said vector of statistical values obtained being associated with said time series of values and with said connected object, d) obtaining, for each connected object, an abnormality score based on a comparison of the vectors of statistical values associated with said object with all the vectors of statistical values, the abnormality scores being indicative of a mean deviation of the vectors of statistical values associated with said object relative to all the vectors of statistical values, and e) in case of detection of an abnormality score of a given connected object deviating beyond a predefined threshold, detecting an anomaly of computing operation of said given connected object.
An elevator comprising a set of hoisting ropes, an elevator car suspended by the set of hoisting ropes and possibly a counterweight suspended by the set of hoisting ropes, in which elevator the hoisting ropes are received by a pair of rope pulleys provided on the elevator car and/or counterweight, which hoisting ropes have been arranged to pass via the rope pulleys of the said pair of rope pulleys so that they run from a first rope pulley of the pair of rope pulleys to a second rope pulley of the pair of rope pulleys, and in which elevator the rope pulleys are rotatably mounted with bearings on a mounting frame of the aforesaid rope pulley, the said mounting frame comprising at least one first connecting part, by means of which the rope pulley is secured to a mounting support on the elevator car or counterweight, characterized in that the mounting frame of each rope pulley in the pair of rope pulleys is provided with at least one second connecting part as a sleeve provided in the mounting frame and that the second connecting part has been arranged to be connected with accurate alignment to an aligning means (20,21) being in the form of a round bar or tube and being separate from the mounting support.
A system for measuring an electrical current to a heater, the system comprising: a first power source; the heater that is powered by the first power source; an electrical line between the first power source and the heater; a control sensor on the electrical line with the control sensor being a Hall Effect sensor positioned to measure a first magnetic field induced by the electrical current and an ambient magnetic field and output a resulting first voltage, the control sensor being provided power by a second power source that is different from the first power source; a compensation sensor being a Hall effect sensor with the same orientation as the control sensor positioned in proximity to the control sensor so to measure the ambient magnetic field and output a resulting second voltage; and an operational amplifier electrically connected to the control sensor and the compensation sensor, the operation amplifier configured to receive the first voltage and the second voltage and determine the electrical current flowing through the electrical line; wherein the system further comprises a microcontroller electrically connected to an output of the operational amplifier, the microcontroller configured to regulate the electrical current flowing through the electrical line to the heater depending on the electrical current determined by the operational amplifier and the amount of electrical current needed by the heater to melt ice or prevent ice from accumulating. a first power source; the heater that is powered by the first power source; an electrical line between the first power source and the heater; a control sensor on the electrical line with the control sensor being a Hall Effect sensor positioned to measure a first magnetic field induced by the electrical current and an ambient magnetic field and output a resulting first voltage, the control sensor being provided power by a second power source that is different from the first power source; a compensation sensor being a Hall effect sensor with the same orientation as the control sensor positioned in proximity to the control sensor so to measure the ambient magnetic field and output a resulting second voltage; and an operational amplifier electrically connected to the control sensor and the compensation sensor, the operation amplifier configured to receive the first voltage and the second voltage and determine the electrical current flowing through the electrical line; wherein the system further comprises a microcontroller electrically connected to an output of the operational amplifier, the microcontroller configured to regulate the electrical current flowing through the electrical line to the heater depending on the electrical current determined by the operational amplifier and the amount of electrical current needed by the heater to melt ice or prevent ice from accumulating.
Adjustable camshaft for the valve gear of an internal combustion engine, with an outer shaft on which at least one first cam is arranged and connected rotationally fixedly thereto, and with an inner shaft which extends through the outer shaft and to which at least one second cam is connected rotationally fixedly, wherein the second cam connected rotationally fixedly with the inner shaft has a cam bore and is mounted rotatably at a seating point on the outer shaft, characterized in that at least one oil groove (16, 17, 18, 19, 20, 20', 21) is made at the seating point in the outer shaft and/or in the inner wall of the cam bore, in which groove oil is conducted from a gap between the outer shaft and the inner shaft through at least one passage (22, 23, 24) extending through the outer shaft.
A polypeptide having xylanase activity and comprising an amino acid sequence, said amino acid sequence having at least 75% identity with SEQ ID No. 3 and which polypeptide has an amino acid substitution to alanine in position 110, wherein said position 110 is determined as the position corresponding to position 110 of B. subtilis xylanase sequence shown as SEQ ID No. 1 by alignment, and wherein the variant xylanase has an improved bran solubilisation activity higher than what may be obtained by use of the corresponding wild-type xylanase of SEQ ID No. 3.
A locking mechanism for luggage compartment doors of vehicles for operating a plurality of connection rods associated with auxiliary drivers, comprising: a main body; a rotary driver for driving the plurality of connection rods; a handle body associated with a transmission element rigidly joined to said handle body to transmit displacement of said handle body to the rotary driver; and a longitudinal lock guide arranged to displace to selectively enable a retaining means associated with a guiding member bear against a tip portion of said transmission element to drive said rotary driver; and an elevator element slidably movable on said guiding member by said transmission element, wherein the elevator element is connected to a connection lever for rotating said rotary driver characterized in that said locking mechanism comprises a remote actuation means which is arranged to move, in use, the rotary driver to control the plurality of connection rods from outside the locking mechanism; and a micro switch in relation with a micro switch protrusion for triggering the remote actuation means when the micro switch protrusion is moved away wherein the micro switch protrusion is arranged on said elevator element. a main body; a rotary driver for driving the plurality of connection rods; a handle body associated with a transmission element rigidly joined to said handle body to transmit displacement of said handle body to the rotary driver; and a longitudinal lock guide arranged to displace to selectively enable a retaining means associated with a guiding member bear against a tip portion of said transmission element to drive said rotary driver; and an elevator element slidably movable on said guiding member by said transmission element, wherein the elevator element is connected to a connection lever for rotating said rotary driver characterized in that said locking mechanism comprises a remote actuation means which is arranged to move, in use, the rotary driver to control the plurality of connection rods from outside the locking mechanism; and a micro switch in relation with a micro switch protrusion for triggering the remote actuation means when the micro switch protrusion is moved away wherein the micro switch protrusion is arranged on said elevator element.
A curve fitting circuit, wherein the curve fitting circuit is configured to receive an input signal, connect to a power amplifier and provide q output signals to the power amplifier, comprising n segmentation processing circuits and q first adder circuits, wherein n is greater than or equal to 2, and q is a natural number; each segmentation processing circuit receives the input signal, intercepts a part of the input signal according to a preset rule, generates a to-be-processed signal according to the intercepted part, and generates q output signals according to the to-be-processed signal by using a polynomial fitting method, wherein parts intercepted by different segmentation processing circuits are not exactly the same; and each first adder circuit receives one signal of the q output signals of each segmentation processing circuit, adds n received signals, and obtains one output signal as one output signal of the q output signals of the curve fitting circuit according to a sum of received n signals, wherein different first adder circuits receive different output signals from one segmentation processing circuit of the n segmentation processing circuits; wherein each segmentation processing circuit comprises an amplitude limiting circuit, a polynomial operation circuit, and a weighting circuit; the amplitude limiting circuit receives the input signal; and generates and outputs, when an amplitude of the input signal is within a preset amplitude range of the segmentation processing circuit at which the amplitude limiting circuit is located, the to-be-processed signal whose amplitude monotonically varies according to the amplitude of the input signal, or outputs a first preset value when the amplitude of the input signal is less than a minimum value of the preset amplitude range, or outputs a second preset value when the amplitude of the input signal is greater than a maximum value of the preset amplitude range, wherein the first preset value is equal to an amplitude of a to-be-processed signal that is generated when the amplitude of the input signal is the minimum value of the preset amplitude range, and the second preset value is equal to an amplitude of a to-be-processed signal that is generated when the amplitude of the input signal is the maximum value of the preset amplitude range; the polynomial operation circuit generates, according to the amplitude of the to-be-processed signal output by the amplitude limiting circuit, a value of each order of computation term whose order is not higher than a preset order; and the weighting circuit receives the values of each order of computation term and generates an output signal of the segmentation processing circuit according to weighting coefficients, wherein a coefficient is of each order of computation term, and according to the values of each order of computation term.