mhurhangee/ep-ind-claims huggingface dataset:
A three-dimensional shaping device shaping a three-dimensional article by irradiating a powder material with an electron beam and melting the powder material, the three-dimensional shaping device comprising: an electron beam emitting unit emitting the electron beam, melting the powder material in order to shape the article, and performing preliminary heating of the powder material by irradiating the powder material with the electron beam before the article is shaped; a control unit adapted to output a control signal to a deflection coil so that, based on the control signal, the deflection coil makes an irradiation position of the electron beam move from a center of an irradiation region toward an outer edge of the irradiation region in a spiral pattern and then return to the vicinity of the center of the irradiation region again when the powder material is irradiated with the electron beam for preliminary heating in which the powder material is heated and the temperature of the powder material is set to a temperature lower than a melting point of the powder material. an electron beam emitting unit emitting the electron beam, melting the powder material in order to shape the article, and performing preliminary heating of the powder material by irradiating the powder material with the electron beam before the article is shaped; a control unit adapted to output a control signal to a deflection coil so that, based on the control signal, the deflection coil makes an irradiation position of the electron beam move from a center of an irradiation region toward an outer edge of the irradiation region in a spiral pattern and then return to the vicinity of the center of the irradiation region again when the powder material is irradiated with the electron beam for preliminary heating in which the powder material is heated and the temperature of the powder material is set to a temperature lower than a melting point of the powder material.
A composition comprising: (a) a reverse transcriptase; (b) a template-switching oligonucleotide comprising a recognition sequence for a site-specific nucleic acid cleaving enzyme, wherein the template-switching oligonucleotide has at its 3' end at least one nucleotide that can hybridize to one or more non-templated nucleotides added to a templated cDNA strand by the reverse transcriptase; and (c) the site-specific nucleic acid cleaving enzyme. (a) a reverse transcriptase; (b) a template-switching oligonucleotide comprising a recognition sequence for a site-specific nucleic acid cleaving enzyme, wherein the template-switching oligonucleotide has at its 3' end at least one nucleotide that can hybridize to one or more non-templated nucleotides added to a templated cDNA strand by the reverse transcriptase; and (c) the site-specific nucleic acid cleaving enzyme.
Liquid composition for the electrodeposition of tin, said composition comprising a tin ion source, an acid, and at least one α, β- unsaturated aldehyde compound selected from citral and tiglin aldehyde, wherein the amount of the tin ion source to be used is comprised between 5 and 500 g/L, the amount of acid to be used is comprised between 1 and 500 g/L, and the amount of the at least one α, β- unsaturated aldehyde compound to be used is comprised between 0.0001 and 10 g/L.
Ophthalmic lens comprising: a) a thermoplastic substrate and; b) a light polarizing structure comprising a film made of polyvinylalcohol, wherein the thermoplastic substrate is made of a resin composition comprising units resulting from: • at least one (C1-C10) alkyl (meth)acrylate monomer; • at least one cyclic anhydride monomer; • and at least one vinyl aromatic monomer; said (C1-C10) alkyl (meth)acrylate monomer being methyl methacrylate, said cyclic anhydride monomer being maleic acid anhydride and said vinyl aromatic monomer being styrene. a) a thermoplastic substrate and; b) a light polarizing structure comprising a film made of polyvinylalcohol, • at least one (C1-C10) alkyl (meth)acrylate monomer; • at least one cyclic anhydride monomer; • and at least one vinyl aromatic monomer; said (C1-C10) alkyl (meth)acrylate monomer being methyl methacrylate, said cyclic anhydride monomer being maleic acid anhydride and said vinyl aromatic monomer being styrene.
A link adaptation method in a LTE system, comprising: a terminal respectively calculating differences between a measured reference signal received power, RSRP, of a home service cell in which the terminal is located and the RSRPs of multiple adjacent cells; the terminal reporting the maximum difference in the differences to a base station; and the base station determining a modulation and coding scheme, MCS, for the terminal according to the maximum difference; wherein while determining the MCS for the terminal, the base station further determines a code rate corresponding to the MCS of the terminal; wherein the step of the base station determining the MCS for the terminal and the code rate corresponding to the MCS according to the maximum difference comprises: the base station finding the MCS corresponding to the maximum difference and the code rate corresponding to the MCS in a pre-established correspondence relation table, wherein the correspondence relation table stores MCSs corresponding to the respective differences and code rates corresponding to the respective MCSs. a terminal respectively calculating differences between a measured reference signal received power, RSRP, of a home service cell in which the terminal is located and the RSRPs of multiple adjacent cells; the terminal reporting the maximum difference in the differences to a base station; and the base station determining a modulation and coding scheme, MCS, for the terminal according to the maximum difference; wherein while determining the MCS for the terminal, the base station further determines a code rate corresponding to the MCS of the terminal; wherein the step of the base station determining the MCS for the terminal and the code rate corresponding to the MCS according to the maximum difference comprises: the base station finding the MCS corresponding to the maximum difference and the code rate corresponding to the MCS in a pre-established correspondence relation table, wherein the correspondence relation table stores MCSs corresponding to the respective differences and code rates corresponding to the respective MCSs.
An assembly comprising an unbonded flexible pipe (30, 70, 80, 90) and an associated end-fitting (79, 89) having a through opening with a centerline and a front and a rear end, the unbonded flexible pipe comprises an innermost sealing sheath defining a bore with a centerline and a carcass (1, 31, 41, 51, 61, 71, 81) arranged inside the innermost sealing sheath (2, 32, 42, 52, 62, 72, 82) wherein the innermost sealing sheath (2, 72, 82) and the carcass (1, 31, 41, 51, 61, 71, 81) extend into the through opening via the front end of the end-fitting (39,79, 89, 99) wherein the innermost sealing sheath (2, 32, 42, 52, 62, 72, 82) is fixed in an annular sealing to the end-fitting (39, 79, 89, 99), the carcass (1, 31, 41, 51, 61, 71, 81) extends beyond the annular sealing, the unbonded flexible pipe further comprises an optical fiber (37, 47, 57, 67, 77, 87) in the bore, characterized in that the fixing of the carcass (1, 31, 41, 51, 61, 71, 81) to the end-fitting (39, 79, 89, 99) comprises a lock nut (31a, 41a, 51a, 61a), the optical fiber (37, 47, 57, 67, 77, 87) exits from the carcass (1, 31, 41, 51, 61, 71, 81) via a guiding groove out of the end-fitting (39, 79, 89, 99), said guiding groove is provided in the lock nut (31a, 41a, 51a, 61a) itself, in a lock nut cover (31b, 41b, 51b, 61b) or in a wall part of the end-fitting surrounding the lock nut.
A method for preparation of the ruthenium-indenylidene carbene catalyst of Formula 1, said method comprising - reacting (PPh 3) 2 Cl 2 Ru(3-phenylindenylidene) with tricyclohexylphosphine (PCy 3) in a reaction mixture having a concentration in the range of 0.2 to 0.6 mol Ru-catalyst/l in a cyclic ether solvent and - precipitating the resulting catalyst of Formula 1 during the reaction. - reacting (PPh 3) 2 Cl 2 Ru(3-phenylindenylidene) with tricyclohexylphosphine (PCy 3) in a reaction mixture having a concentration in the range of 0.2 to 0.6 mol Ru-catalyst/l in a cyclic ether solvent and - precipitating the resulting catalyst of Formula 1 during the reaction.
An air conditioning indoor unit equipped with a filter cleaning device (70, 270) that actuates a filter placed on an upwind side of an indoor heat exchanger and removes dirt and dust adhered to the filter, wherein the filter is a filter formed in a loop shape, and the filter cleaning device (70, 270) has a first roller (41, 241) that rotates in a state where the surface is in contact with the filter and a drive component (31,231) that causes the first roller (41, 241) to rotate, characterized in that the first roller (41, 241) has a brush material on its surface, and wherein the filter cleaning device (70, 270) further has a support frame (40, 240) that supports the filter at least from inside, the support frame (40, 240) is disposed with a handgrip (58, 258) in a predetermined position on the opposite side of the indoor heat exchanger side, and by pulling the handgrip (58, 258) in a direction away from the body, the filter cleaning device (70, 270) or at least the support frame (40, 240) is detached from the body. a first roller (41, 241) that rotates in a state where the surface is in contact with the filter and a drive component (31,231) that causes the first roller (41, 241) to rotate, characterized in that the first roller (41, 241) has a brush material on its surface, and wherein the filter cleaning device (70, 270) further has a support frame (40, 240) that supports the filter at least from inside,
A composition in the form of an O/W emulsion having oil phases dispersed in an aqueous phase, comprising: (a) at least one oil; (b) at least two hydrophilic UV filters comprising at least one hydrophilic UV-A filter and at least one hydrophilic UV-B filter; (c) water; and (d) emulsifiers comprising at least one nonionic emulsifier; wherein the number-average diameter of the oil phase droplets is less than 200 nm, and the amount of the oil is from 0.5 to 5% by weight relative to the total weight of the composition; the hydrophilic UV-A filter is selected from terephthalylidene dicamphor sulfonic acid and salts thereof, bisbenzoxazolyl derivatives chosen from disodium phenyl dibenzimidazole tetrasulfonate and salts thereof; the hydrophilic UV-B filter is selected from p-aminobenzoic (PABA) derivatives chosen from PABA, Glyceryl PABA and PEG-25 PABA and salts thereof, phenylbenzimidazole sulfonic acid and salts thereof, ferulic acid and salts thereof, salicylic acid and salts thereof, DEA methoxycinnamate and salts thereof, benzylidene camphor sulfonic acid and salts thereof, and camphor benzalkonium methosulfate and salts thereof; and the amount of the (b) hydrophilic UV filters is from 5 to 25% by weight relative to the total weight of the composition. (a) at least one oil; (b) at least two hydrophilic UV filters comprising at least one hydrophilic UV-A filter and at least one hydrophilic UV-B filter; (c) water; and (d) emulsifiers comprising at least one nonionic emulsifier; the hydrophilic UV-A filter is selected from terephthalylidene dicamphor sulfonic acid and salts thereof, bisbenzoxazolyl derivatives chosen from disodium phenyl dibenzimidazole tetrasulfonate and salts thereof; the hydrophilic UV-B filter is selected from p-aminobenzoic (PABA) derivatives chosen from PABA, Glyceryl PABA and PEG-25 PABA and salts thereof, phenylbenzimidazole sulfonic acid and salts thereof, ferulic acid and salts thereof, salicylic acid and salts thereof, DEA methoxycinnamate and salts thereof, benzylidene camphor sulfonic acid and salts thereof, and camphor benzalkonium methosulfate and salts thereof; and the amount of the (b) hydrophilic UV filters is from 5 to 25% by weight relative to the total weight of the composition.
Method for operating a fuel injection system of an internal combustion engine, wherein the fuel injection system has an injector for metering fuel into a combustion chamber of the internal combustion engine, wherein the injector has an actuator, a switching valve and a nozzle needle, wherein in the method a voltage or a current is fed to the actuator during an actuation time period (d active), wherein the switching valve is made to undergo a reciprocating movement by the actuator, and wherein as a result of the reciprocating movement of the switching valve the injector is opened and closed by means of the nozzle needle, characterized in that a further time period (d close, d c1) is determined, wherein the further time period (d close, d c1) ends with the closing time of the nozzle needle, in that a function (f) is determined which links the actuation time period (d active) to the further time period (d close, d c1), in that a minimum actuation time period (d active,min) at which the nozzle needle still opens and brings about an injection is determined by means of the function (f), and in that an opening delay time period (d o1) of the nozzle needle is determined as a function of the minimum actuation time period (d active,min).
A mass detection device, comprising: a processor; at least one sensor assembly, wherein the sensor assembly at least comprises a first sensor and a second sensor; the sensor assembly is configured to be connected to the processor and output a first sensing information and a second sensing information related to a mass of an object to be measured; characterized in that the processor is configured to acquire the first sensing information and the second sensing information to determine an initially measured mass of the object to be measured by each sensor, and according to a comparison between a selected initially measured mass of the object to be measured and a first set threshold and a comparison between an absolute value of a difference in the initially measured mass of the object to be measured by each sensor and a second set threshold, to determine a final mass of the object to be measured. a processor; at least one sensor assembly, wherein the sensor assembly at least comprises a first sensor and a second sensor; the sensor assembly is configured to be connected to the processor and output a first sensing information and a second sensing information related to a mass of an object to be measured; characterized in that the processor is configured to acquire the first sensing information and the second sensing information to determine an initially measured mass of the object to be measured by each sensor, and according to a comparison between a selected initially measured mass of the object to be measured and a first set threshold and a comparison between an absolute value of a difference in the initially measured mass of the object to be measured by each sensor and a second set threshold, to determine a final mass of the object to be measured.
A recombinant bacterial host cell comprising: a) a xylose metabolic pathway comprising at least one gene encoding a polypeptide having xylose isomerase activity; b) at least one gene encoding a polypeptide having ribose-5-phosphate isomerase activity; and c) at least one genetic modification which increases expression of ribose-5-phosphate isomerase activity in the host cell as compared with ribose-5-phosphate isomerase activity in the host cell lacking said genetic modification; wherein the bacterial host cell utilizes xylose to produce ethanol; and wherein the bacterial host cell is selected from the group consisting of Zymomonas and Zymobacter, and wherein the at least one genetic modification of step (c) comprises increasing the gene copy number of a gene encoding a polypeptide having ribose-5-phosphate isomerase activity and/or expressing a said ribose-5-phosphate isomerase-encoding gene from a high expression promoter. a) a xylose metabolic pathway comprising at least one gene encoding a polypeptide having xylose isomerase activity; b) at least one gene encoding a polypeptide having ribose-5-phosphate isomerase activity; and c) at least one genetic modification which increases expression of ribose-5-phosphate isomerase activity in the host cell as compared with ribose-5-phosphate isomerase activity in the host cell lacking said genetic modification;
A system for providing information about a patient's heart, the system comprising: one or more electrodes for measuring signals at multiple positions in a patient's heart cavity in response to electrical activity in the patient's heart cavity over multiple heart beat cycles; and an electronic processor coupled to the one or more electrodes, wherein the electronic processor is configured to: generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information. one or more electrodes for measuring signals at multiple positions in a patient's heart cavity in response to electrical activity in the patient's heart cavity over multiple heart beat cycles; and an electronic processor coupled to the one or more electrodes, wherein the electronic processor is configured to: generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information. generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information.
An air conditioning system for a vehicle, comprising an evaporator configured for heat exchange between a coolant and air, a fan configured to generate an air flow flowing through the evaporator and intended to be fed into a passenger compartment of the vehicle, at least one pressure sensor configured to measure the pressure of the coolant, and control means for adjusting the rotation speed of the fan, wherein said control means are configured to automatically decrease the rotation speed of the fan when the measured pressure of the coolant rises above a pressure threshold, in such a way as to reduce the air flow on the evaporator and therefore reduce the pressure of the coolant, wherein said control means are further configured to generate a control signal (PWMout) for adjusting the rotation speed of the fan, said control signal having a characteristic proportional to the rotation speed of the fan, and wherein said characteristic of the control signal follows a predetermined adjustment curve as a function of the measured pressure of the coolant, the air conditioning system characterised in that said adjustment curve comprises a first curve and a second curve in which, for the same pressure, the characteristic of the control signal of the first curve has a greater value than the characteristic of the control signal of the second curve, and wherein said control means are configured to calculate the average value (VS n) of a signal representative of the measured pressure of the coolant in a respective time interval, compare the average value (VS n) of the signal calculated for a given time interval with the average value of the signal (VS n-1) calculated for a prior time interval, and if the average value of the signal (VS n) calculated for the given time interval is greater than the average value of the signal (VS n-1) calculated for the prior time interval, generate a control signal according to the first curve, and if the average value of the signal (VS n) calculated for the given time interval is less than the average value of the signal (VS n-1) calculated for the prior time interval, generate a control signal according to the second curve.
A method for operating a rotorcraft comprising a plurality of engines (102, 104) configured to provide motive power to the rotorcraft and at least one rotor coupled to the plurality of engines (102, 104), the method comprising: detecting failure of an active engine of the rotorcraft when the rotorcraft is operated in an asymmetric operating regime, in which at least one first engine of the plurality of engines (102, 104) is the active engine and is operated in an active mode to provide motive power to the rotorcraft and at least one second engine of the plurality of engines (102, 104) is a standby engine and is operated in a standby mode to provide substantially no motive power to the rotorcraft; adjusting at least one flight control input to compensate for a reduction in rotational speed of the at least one rotor resulting from the failure of the active engine; and commanding an increase in a power output of the standby engine of the rotorcraft. detecting failure of an active engine of the rotorcraft when the rotorcraft is operated in an asymmetric operating regime, in which at least one first engine of the plurality of engines (102, 104) is the active engine and is operated in an active mode to provide motive power to the rotorcraft and at least one second engine of the plurality of engines (102, 104) is a standby engine and is operated in a standby mode to provide substantially no motive power to the rotorcraft; adjusting at least one flight control input to compensate for a reduction in rotational speed of the at least one rotor resulting from the failure of the active engine; and commanding an increase in a power output of the standby engine of the rotorcraft.