mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving, by a mobile device (110, 120) that implements a language-independent speaker verification model configured to verify the identity of speakers that speak different languages and determine whether received audio data likely includes an utterance of one of multiple language-specific hotwords (105a, 115a), (i) particular audio data corresponding to a particular utterance of a user (105b, 115b), and (ii) data indicating a particular language spoken by the user, for each of the different languages there being a pre-determined designated hotword; and in response to receiving (i) particular audio data corresponding to a particular utterance of a user (105b, 115b), and (ii) data indicating a particular language spoken by the user, providing, for output, an indication that the language-independent speaker verification model has determined that the particular audio data (105b, 115b) likely includes the utterance of the hotword (105a, 115a) designated for the particular language spoken by the user. receiving, by a mobile device (110, 120) that implements a language-independent speaker verification model configured to verify the identity of speakers that speak different languages and determine whether received audio data likely includes an utterance of one of multiple language-specific hotwords (105a, 115a), (i) particular audio data corresponding to a particular utterance of a user (105b, 115b), and (ii) data indicating a particular language spoken by the user, for each of the different languages there being a pre-determined designated hotword; and in response to receiving (i) particular audio data corresponding to a particular utterance of a user (105b, 115b), and (ii) data indicating a particular language spoken by the user, providing, for output, an indication that the language-independent speaker verification model has determined that the particular audio data (105b, 115b) likely includes the utterance of the hotword (105a, 115a) designated for the particular language spoken by the user.
A method of coating one or more surfaces of a medical device comprising: providing a mixture of polyallyl mercaptan, a multi-arm poly(ethylene glycol), and a photoinitiator in an organic solvent containing one or more drugs, medicaments, or pharmaceutical compounds comprising an antibiotic; applying the mixture to one or more surfaces of the medical device; and irradiating the mixture with polymerizing light to form a PEG-PAM coating on the one or more surfaces of the medical device containing the one or more drugs, medicaments, or pharmaceutical compounds. providing a mixture of polyallyl mercaptan, a multi-arm poly(ethylene glycol), and a photoinitiator in an organic solvent containing one or more drugs, medicaments, or pharmaceutical compounds comprising an antibiotic; applying the mixture to one or more surfaces of the medical device; and irradiating the mixture with polymerizing light to form a PEG-PAM coating on the one or more surfaces of the medical device containing the one or more drugs, medicaments, or pharmaceutical compounds.
A bridging device in center girder construction for a building joint between two building components (3, 4), wherein the bridging device comprises at least two edge girders (10, 11) and at least one center girder, wherein the at least one center girder is arranged between the edge girders (10, 11) and on at least one cross member (5; 6) bridging the building joint that each have a cross member bearing (16; 17) for bearing the cross member (5; 6) on the respective building components (3, 4) at their lateral ends (14; 15), characterized in that the cross member (5; 6) has at least two cross member segments (7, 8; 20) that are arranged along a longitudinal axis of the cross member (5; 6) and that are arranged displaceable relative to each other toward the longitudinal axis, so that the length of the cross member (7, 8) is variable.
An apparatus, comprising: an acoustic telemetry transmitter having an operational acoustic communications frequency range; a fluid pulse source having a fundamental frequency of pulsation; and a shock sub, wherein the fluid pulse source is operable to excite vibrations in the shock sub so as to increase axial vibration in a drill string mechanically coupled to the fluid pulse source and the shock sub, to reduce static friction between the drill string and a formation surrounding the drill string, wherein the vibrations are excited at the fundamental frequency that is selected to be outside of the operational acoustic communications frequency range. an acoustic telemetry transmitter having an operational acoustic communications frequency range; a fluid pulse source having a fundamental frequency of pulsation; and a shock sub, wherein the fluid pulse source is operable to excite vibrations in the shock sub so as to increase axial vibration in a drill string mechanically coupled to the fluid pulse source and the shock sub, to reduce static friction between the drill string and a formation surrounding the drill string, wherein the vibrations are excited at the fundamental frequency that is selected to be outside of the operational acoustic communications frequency range.
A Transverse In-Core Probe (40,41), comprising: a cable; a TIP detector attached to the cable; characterized in that it further comprises: a neutron absorber affixed to the cable, a fixed distance x apart from the TIP detector. a cable; a TIP detector attached to the cable; characterized in that it further comprises: a neutron absorber affixed to the cable, a fixed distance x apart from the TIP detector. a neutron absorber affixed to the cable, a fixed distance x apart from the TIP detector.
An optical pulse compression reflectometer, comprising: a single wavelength continuous optical source, an optical splitter, a modulation frequency pulse generating module, an optical directional coupler, an optical fiber under test, an optical coupler, a balanced photodetecter, and a pulse compression processing module;wherein an output port of said single wavelength continuous optical source is connected with an input port of said optical splitter, a first output port of the optical splitter is connected with an input port of said modulation frequency pulse generating module, an output port the modulation frequency pulse generating module is connected with a first port of the optical directional coupler,a second port of the optical directional coupler is connected with said optical fiber under test, a third port of the optical directional coupler is connected with a first input port of the optical coupler, and a second output port of the optical splitter is directly connected with a second input port of the optical coupler;and two branches of output of the optical coupler are received in said balanced photoelectric photodetecter, and an output port of the balanced photoelectric detector is connected with said pulse compression processing module; wherein the optical directional coupler is configured to output on the second port the light input on the first port, and to output on the third port the light input on the second port; characterized in that the modulation frequency pulse generating module comprises a first polarization controller, a linear modulation frequency voltage controlled oscillator, a waveform generator, a single sideband modulator, a second polarization controller, a first erbium-doped fiber amplifier, a Mach-Zehnder electro-optic modulator, and a second erbium-doped fiber amplifier; wherein a wave output port of said waveform generator is connected with an input port of said linear modulation frequency voltage controlled oscillator, an output port of the linear modulation frequency voltage controlled oscillator is connected with an electric signal input port of said single sideband modulator, the first output port of the optical splitter is connected with an input port of said first polarization controller, an output port of the first polarization controller is connected with an optical signal input port of the single sideband modulator, an output port of the single sideband modulator is connected with an input port of said second polarization controller, an output port of the second polarization controller is connected with an input port of said erbium-doped fiber amplifier, an output port of the erbium-doped fiber amplifier is connected with an optical signal input port of said Mach-Zehnder electro-optic modulator, a pulse output port of the waveform generator is connected with an electric signal input port of the Mach-Zehnder electro-optic modulator, and an output port of the Mach-Zehnder electro-optic modulator is connected with an input port of the optical directional coupler.
An isolated, synthetic, or recombinant nucleic acid comprising: (i) a nucleic acid sequence encoding a polypeptide having a phytase activity and having at least 95%, 96% 97%, 98% or 99% or more sequence identity to SEQ ID NO:1, wherein the polypeptide comprises the mutation Q247H; or (ii) a polynucleotide encoding a polypeptide having a phytase activity and having at least 95%, 96% 97%, 98% or 99% or more sequence identity to SEQ ID NO:2, wherein the polypeptide comprises the mutation Q247H; wherein said polypeptide of (i) or (ii) has a thermotolerance equal to or greater than the unmutated parental sequence, as well as increased gastric lability over the parental sequence. (i) a nucleic acid sequence encoding a polypeptide having a phytase activity and having at least 95%, 96% 97%, 98% or 99% or more sequence identity to SEQ ID NO:1, wherein the polypeptide comprises the mutation Q247H; or (ii) a polynucleotide encoding a polypeptide having a phytase activity and having at least 95%, 96% 97%, 98% or 99% or more sequence identity to SEQ ID NO:2, wherein the polypeptide comprises the mutation Q247H;
An air-conditioning apparatus, comprising: a refrigerant circuit in which a compressor, a heat source heat exchanger, an expansion device, and a load heat exchanger are connected via refrigerant pipes; a refrigerant leakage sensor configured to output a refrigerant leakage detection signal indicating detection of refrigerant leakage when the refrigerant leakage sensor detects the refrigerant leakage; a refrigerant leakage cutoff device (13, 14) configured to cut off a flow of refrigerant when the refrigerant leakage cutoff device (13, 14) is set to a closed state; and a controller configured to determine whether refrigerant leakage occurs on a basis of whether the refrigerant leakage detection signal is received from the refrigerant leakage sensor, characterized by a temperature sensor configured to detect a discharge temperature of refrigerant discharged from the compressor, wherein when the controller receives the refrigerant leakage detection signal and further determines, on a basis of an operating state, that the refrigerant leakage occurs, the controller is configured to set the refrigerant leakage cutoff device (13, 14) to the closed state, wherein the controller is configured to determine whether the refrigerant leakage occurs by comparing the discharge temperature serving as an index of the operating state with a predetermined reference value. a refrigerant circuit in which a compressor, a heat source heat exchanger, an expansion device, and a load heat exchanger are connected via refrigerant pipes; a refrigerant leakage sensor configured to output a refrigerant leakage detection signal indicating detection of refrigerant leakage when the refrigerant leakage sensor detects the refrigerant leakage; a refrigerant leakage cutoff device (13, 14) configured to cut off a flow of refrigerant when the refrigerant leakage cutoff device (13, 14) is set to a closed state; and a controller configured to determine whether refrigerant leakage occurs on a basis of whether the refrigerant leakage detection signal is received from the refrigerant leakage sensor, characterized by a temperature sensor configured to detect a discharge temperature of refrigerant discharged from the compressor, wherein when the controller receives the refrigerant leakage detection signal and further determines, on a basis of an operating state, that the refrigerant leakage occurs, the controller is configured to set the refrigerant leakage cutoff device (13, 14) to the closed state, wherein the controller is configured to determine whether the refrigerant leakage occurs by comparing the discharge temperature serving as an index of the operating state with a predetermined reference value.
A shank instrument, in particular a medical endoscopic shank instrument or technoscope, with a shank and with an instrument head, said instrument head comprising at least one joint part articulated on the distal shank end in an angularly bendable manner and a tool carrier which at the distal side is articulated on the joint part in an angularly bendable manner in the angular bending plane of the joint part, wherein a toothing which is meshed with a toothed body rotatably mounted in the shank and coupled in movement to a pull cable pair for the movement control of the instrument head is formed at the proximal end of the joint part characterised in that the toothed body is divided in two transversely to its rotation axis, wherein the two parts (64, 66) of the toothed body are rotatable relative to one another and each of the two parts (64, 66) of the toothed body is connected in a rotationally fixed manner to an actuation roller, on which actuation roller a pull cable engages in each case, in an antagonistic manner with respect to the other pull cable.
An intraocular lens injector configured to inject an intraocular lens having an optical portion with a peripheral edge and support portions (9a, 9b) extending from the optical portion into an eye, comprising: an injector main body having a lens setting portion on which the intraocular lens is set; a pushing member configured to push out the intraocular lens from the lens setting portion by moving in a direction of a central axis of the injector main body; and a guide mechanism configured to guide the movement of the pushing member when the pushing member moves in the direction of the central axis of the injector main body, wherein when the pushing member moves in the direction of the central axis of the injector main body, a tip end part of the pushing member is configured to come into contact with one of the support portions (9a, 9b) of the intraocular lens, and is configured to thereafter come into contact with the optical portion while pushing the contacted support portion, and the guide mechanism is configured to guide the movement of the pushing member so that the tip end part of the pushing member is displaced by the guide mechanism in a direction intersecting the central axis of the injector main body while the tip end part of the pushing member is pushing the contacted support portion, and the tip end part of the pushing member is configured to push a part of the contacted support portion. an injector main body having a lens setting portion on which the intraocular lens is set; a pushing member configured to push out the intraocular lens from the lens setting portion by moving in a direction of a central axis of the injector main body; and a guide mechanism configured to guide the movement of the pushing member when the pushing member moves in the direction of the central axis of the injector main body, wherein when the pushing member moves in the direction of the central axis of the injector main body, a tip end part of the pushing member is configured to come into contact with one of the support portions (9a, 9b) of the intraocular lens, and is configured to thereafter come into contact with the optical portion while pushing the contacted support portion, and the guide mechanism is configured to guide the movement of the pushing member so that the tip end part of the pushing member is displaced by the guide mechanism in a direction intersecting the central axis of the injector main body while the tip end part of the pushing member is pushing the contacted support portion, and the tip end part of the pushing member is configured to push a part of the contacted support portion.
A bacterial host cell comprising a genetically modified phage wherein - an expression system is inserted, said expression system comprising a nucleic acid sequence encoding a protein, said protein further inducing the expression of a biomolecule of interest, and - the int, S, R, Rz, Xis genes are deleted, and wherein said genetically modified phage is integrated in the genome of said bacterial host cell, and wherein the phage is the lambda phage, the 434phage, the phi80 phage, the phi81 phage, the HK97 phage, or the P21 phage. - an expression system is inserted, said expression system comprising a nucleic acid sequence encoding a protein, said protein further inducing the expression of a biomolecule of interest, and - the int, S, R, Rz, Xis genes are deleted, and
Method for sealing partly prepared constituents of a menu, wherein the constituents are positioned on a dish unit and covered with a film, characterised in that an interspace between the dish unit that is provided with constituents and the film is partly evacuated, such that during evacuation air is suctioned in a percentage of at least 20% from the interspace and remains in a percentage of more than 20% in the interspace.
Fuel cell stack housing comprising at least a bottom section and a first and a second side wall (11; 12), which are spaced apart by the bottom section, wherein the housing is adapted to house a fuel cell stack and comprises at least one fastening element, which is engaged with the first and the second side wall (11; 12), wherein at least the first side wall of the housing has a flat section and an arched section extending in direction of the second side wall, and wherein a maximum possible distance between the arched section (11-2; 12-2) and the bottom portion defines an inner height (h i) of the fuel cell stack housing, characterized in that the arched section and the second side wall are separated from each other by a gap, wherein the at least one fastening element spans the gap between the arched section and the second side wall, and wherein the inner height (h i) of the fuel cell stack housing is adjustable and the height adjustment is induced by a tightening level of the at least one fastening element.
A cylinder device, comprising: a cylinder; a piston slidably inserted into the cylinder; a rod inserted into the cylinder and connected to the piston; an extension-side chamber and a compression-side chamber partitioned by the piston within the cylinder; a tank; an extension-side suction passage configured to permit only the passage of liquid from the tank toward the extension-side chamber; a compression-side suction passage configured to permit only the passage of liquid from the tank toward the compression-side chamber; a recess provided on either one of the piston and the cylinder, the recess facing the other one of the piston and the cylinder; an extension-side discharge passage provided in the piston and configured to permit only a flow of liquid from the extension-side chamber toward the recess; a compression-side discharge passage provided in the piston and configured to permit only a flow of liquid from the compression-side chamber toward the recess; a tank-side discharge passage configured to allow the extension-side discharge passage and the compression-side discharge passage to communicate with the tank through the recess; an extension-side damping force generation passage configured to apply a resistance to a flow of liquid passing therethrough so as to exert a damping force during extension; and a compression-side damping force generation passage configured to apply a resistance to a flow of liquid passing therethrough so as to exert a damping force during contraction. a cylinder; a piston slidably inserted into the cylinder; a rod inserted into the cylinder and connected to the piston; an extension-side chamber and a compression-side chamber partitioned by the piston within the cylinder; a tank; an extension-side suction passage configured to permit only the passage of liquid from the tank toward the extension-side chamber; a compression-side suction passage configured to permit only the passage of liquid from the tank toward the compression-side chamber; a recess provided on either one of the piston and the cylinder, the recess facing the other one of the piston and the cylinder; an extension-side discharge passage provided in the piston and configured to permit only a flow of liquid from the extension-side chamber toward the recess; a compression-side discharge passage provided in the piston and configured to permit only a flow of liquid from the compression-side chamber toward the recess; a tank-side discharge passage configured to allow the extension-side discharge passage and the compression-side discharge passage to communicate with the tank through the recess; an extension-side damping force generation passage configured to apply a resistance to a flow of liquid passing therethrough so as to exert a damping force during extension; and a compression-side damping force generation passage configured to apply a resistance to a flow of liquid passing therethrough so as to exert a damping force during contraction.
A hair treatment composition comprising: - at least 0.5 wt.% of at least one non-polymeric mono, di, or tricarboxylic acid, and/or a salt thereof; - one or more amines selected from the group consisting of diamines, polyamines, alkylamines, alkanolamines, and a mixture thereof; - one or more fructan polysaccharides; - one or more prosolvents; and - water; wherein the hair treatment composition is free of cationic surfactants. - at least 0.5 wt.% of at least one non-polymeric mono, di, or tricarboxylic acid, and/or a salt thereof; - one or more amines selected from the group consisting of diamines, polyamines, alkylamines, alkanolamines, and a mixture thereof; - one or more fructan polysaccharides; - one or more prosolvents; and - water;
Hardener for epoxy resins comprising - at least one amine of formula, - and at least one amine of formula, where X represents 1,2-propylene, R represents a hydrogen radical or a hydrocarbon radical having 1 to 6 carbon atoms, A represents a five-, six- or seven-membered cycloalkyl or aryl radical having 4 to 7 carbon atoms and optionally having an oxygen, sulfur or nitrogen atom in the ring, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, n is 0 or 1 or 2 or 3, m is 1 or 2 or 3, and Z represents an m-valent hydrocarbon radical, optionally containing ether oxygen, having a molecular weight in the range from 56 to 1500 g/mol as determined by the methods stated in the description. - at least one amine of formula, - and at least one amine of formula, where X represents 1,2-propylene, R represents a hydrogen radical or a hydrocarbon radical having 1 to 6 carbon atoms, A represents a five-, six- or seven-membered cycloalkyl or aryl radical having 4 to 7 carbon atoms and optionally having an oxygen, sulfur or nitrogen atom in the ring, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, n is 0 or 1 or 2 or 3, m is 1 or 2 or 3, and Z represents an m-valent hydrocarbon radical, optionally containing ether oxygen, having a molecular weight in the range from 56 to 1500 g/mol as determined by the methods stated in the description. X represents 1,2-propylene, R represents a hydrogen radical or a hydrocarbon radical having 1 to 6 carbon atoms, A represents a five-, six- or seven-membered cycloalkyl or aryl radical having 4 to 7 carbon atoms and optionally having an oxygen, sulfur or nitrogen atom in the ring, Y represents identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, n is 0 or 1 or 2 or 3, m is 1 or 2 or 3, and Z represents an m-valent hydrocarbon radical, optionally containing ether oxygen, having a molecular weight in the range from 56 to 1500 g/mol as determined by the methods stated in the description.