mhurhangee/ep-ind-claims huggingface dataset:
A hearing instrument comprising a radio for reception of a broadcasted message together with a signature, an authenticator configured for authentication of a transmitter of the broadcasted message based on the signature, and wherein the hearing instrument is further configured for converting the broadcasted message into an acoustic signal for transmission towards an eardrum of a user of the hearing instrument upon successful authentication of the transmitter of the broadcasted message.
A heat treatment container (240; 340) for a vacuum heat treatment apparatus, the heat treatment container comprising: a bottom; a sidewall, a plurality of upper exhaust passages (242; 342) defined in an uppermost portion of the sidewall, and a plurality of lower exhaust passages (244; 344) defined in a lower portion of the sidewall, wherein a porous member (26; 36) is disposed inside the heat treatment container, (240; 340), wherein the porous member (26; 36) is disposed at a lower portion of the heat treatment container, wherein the porous member (26; 36) is disposed to block the lower exhaust passage, wherein the porous member is configured to block the lower exhaust passages such that raw material within the heat treatment container is inhibited from leaking, wherein a height of the porous member (26; 36) is equal to or larger than heights of the lower exhaust passages (244; 344). a bottom; a sidewall, a plurality of upper exhaust passages (242; 342) defined in an uppermost portion of the sidewall, and a plurality of lower exhaust passages (244; 344) defined in a lower portion of the sidewall, wherein a porous member (26; 36) is disposed inside the heat treatment container, (240; 340), wherein the porous member (26; 36) is disposed at a lower portion of the heat treatment container, wherein the porous member (26; 36) is disposed to block the lower exhaust passage, wherein the porous member is configured to block the lower exhaust passages such that raw material within the heat treatment container is inhibited from leaking, wherein a height of the porous member (26; 36) is equal to or larger than heights of the lower exhaust passages (244; 344).
A baked foodstuff, with an improved flavor,produced by a process according to claims 22-23, characterised in that flavour active molecules in the baked foodstuff comprise 2,5-dimethyl-4-hydroxy-3 -furanone, 5-methylfurfural, diacetyl, and 2-acetyl-1-pyroline.
An aerosol-generating system for generating an inhalable aerosol, wherein the system comprises: - an electric heater for vaporizing an aerosol-forming substance, - a battery for powering the electric heater, and - a control unit, wherein the control unit is configured to detect if the electric heater is operated and if the battery is on charge, and wherein the control unit is configured to prevent charging of the battery, when the electric heater is operated, and configured to prevent the electric heater from operating, when the battery is on charge. - an electric heater for vaporizing an aerosol-forming substance, - a battery for powering the electric heater, and - a control unit,
A gearbox for a gas turbine engine comprising: a housing that includes a cavity provided between opposing first and second mounting surfaces (76, 78); an input gear shaft coupled to a drive gear (96, 98, 100), the drive gear (96, 98, 100) connected to first and second shaft portions (114, 116) that respectively extend to the first and second mounting surfaces (76, 78), wherein the first and second shaft portions (114, 116) and the drive gear (96, 98, 100) are coaxial with one another; a gear train having multiple drive gears (96, 98, 100) that includes the drive gear (96, 98, 100), wherein each of the multiple drive gears (96, 98, 100) have first and second shaft portions (114, 116) coaxial with one another and their respective drive gear (96, 98, 100), the multiple drive gears (96, 98, 100) include first, second and third drive gears (96, 98, 100), the first drive gear corresponds to the drive gear, and the gear train includes a first idler gear coupling at least two of the multiple drive gears (96, 98, 100), characterized in that: the gear train includes a second idler gear, the first and second idler gears (102, 104) arranged in alternating relationship with the first, second and third drive gears (96, 98, 100). a housing that includes a cavity provided between opposing first and second mounting surfaces (76, 78); an input gear shaft coupled to a drive gear (96, 98, 100), the drive gear (96, 98, 100) connected to first and second shaft portions (114, 116) that respectively extend to the first and second mounting surfaces (76, 78), wherein the first and second shaft portions (114, 116) and the drive gear (96, 98, 100) are coaxial with one another; a gear train having multiple drive gears (96, 98, 100) that includes the drive gear (96, 98, 100), wherein each of the multiple drive gears (96, 98, 100) have first and second shaft portions (114, 116) coaxial with one another and their respective drive gear (96, 98, 100), the multiple drive gears (96, 98, 100) include first, second and third drive gears (96, 98, 100), the first drive gear corresponds to the drive gear, and the gear train includes a first idler gear coupling at least two of the multiple drive gears (96, 98, 100),
A platelet product, comprising: platelets, and an aqueous solution comprising: from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and up to 5% by volume plasma. platelets, and an aqueous solution comprising: from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and from 45 to 125 mM sodium chloride; from 5 to 15 mM sodium citrate; from 20 to 40 mM sodium acetate; from 0.05 to 12 mM phosphate; from 0.05 to 3 mM magnesium ion; from 0.05 to 10 mM potassium chloride; from 20 to 25 mM sodium bicarbonate; from about 0.5 to about 30 mM glucose, and up to 5% by volume plasma.
A sunscreen composition comprising: a polymer composition comprising a UV-absorbing polyglycerol comprising a UV-absorbing chromophore chemically bound thereto; and a cosmetically-acceptable topical carrier comprising at least one percent of a non-UV-absorbing polyglycerol, based on the total weight of said sunscreen composition, wherein said UV-absorbing polyglycerol comprises a hydrophobic moiety and said non-UV-absorbing polyglycerol comprises a hydrophobic moiety. a polymer composition comprising a UV-absorbing polyglycerol comprising a UV-absorbing chromophore chemically bound thereto; and a cosmetically-acceptable topical carrier comprising at least one percent of a non-UV-absorbing polyglycerol, based on the total weight of said sunscreen composition, wherein said UV-absorbing polyglycerol comprises a hydrophobic moiety and said non-UV-absorbing polyglycerol comprises a hydrophobic moiety.
A method of obtaining data regarding a gas analyte, comprising: providing the analyte from a gas chromatography column; providing the analyte to a gas flow cell; passing VUV wavelengths or less of light from a VUV light source via a light path through the gas flow cell: detecting absorption of the VUV wavelengths or less of the light by the analyte through the use of a spectrometer optically coupled to an optical output of the gas flow cell; obtaining a three dimensional data set indicative of an amount of absorption of the analyte as a function of wavelength and time; and analyzing the three dimensional data set with a regression fit procedure to determine an identity of the analyte and analyzing the three dimensional data set with the regression fit procedure to determine a quantity of the analyte, wherein the regression fit procedure determines both the identity of the analyte and the amount of analyte. providing the analyte from a gas chromatography column; providing the analyte to a gas flow cell; passing VUV wavelengths or less of light from a VUV light source via a light path through the gas flow cell: detecting absorption of the VUV wavelengths or less of the light by the analyte through the use of a spectrometer optically coupled to an optical output of the gas flow cell; obtaining a three dimensional data set indicative of an amount of absorption of the analyte as a function of wavelength and time; and analyzing the three dimensional data set with a regression fit procedure to determine an identity of the analyte and analyzing the three dimensional data set with the regression fit procedure to determine a quantity of the analyte, wherein the regression fit procedure determines both the identity of the analyte and the amount of analyte. detecting absorption of the VUV wavelengths or less of the light by the analyte through the use of a spectrometer optically coupled to an optical output of the gas flow cell; obtaining a three dimensional data set indicative of an amount of absorption of the analyte as a function of wavelength and time; and analyzing the three dimensional data set with a regression fit procedure to determine an identity of the analyte and analyzing the three dimensional data set with the regression fit procedure to determine a quantity of the analyte, wherein the regression fit procedure determines both the identity of the analyte and the amount of analyte.
Rail vehicle having a snow-protection arrangement for a coupling region (KUPB) of the rail vehicle, - in which the rail vehicle has on an end face a recess (EINB) which is to be protected from snow, - in which a coupling of the rail vehicle is arranged at least partially in the recess (EINB), - in which a fixed housing (EINH) at least partially surrounds the recess (EINB), - in which the housing (EINH) has an opening in the direction of travel of the rail vehicle, from which opening the coupling partially protrudes in a predefined angular position in order to make possible a coupling operation with a further rail vehicle, - in which the opening of the fixed housing (EINH) is fixedly connected in a peripheral manner to a first seal element, - in which a second seal element is rotatably connected to the coupling and the second seal element at least partially surrounds the coupling, - in which, in the region of the opening, the two seal elements (DIE1, DIE2) at least partially overlap in different angular positions of the coupling, - in which the two seal elements (DIE1, DIE2) are coupled to one another by way of pressure in order to protect the opening from the ingress of snow. - in which the rail vehicle has on an end face a recess (EINB) which is to be protected from snow, - in which a coupling of the rail vehicle is arranged at least partially in the recess (EINB), - in which a fixed housing (EINH) at least partially surrounds the recess (EINB), - in which the housing (EINH) has an opening in the direction of travel of the rail vehicle, from which opening the coupling partially protrudes in a predefined angular position in order to make possible a coupling operation with a further rail vehicle, - in which the opening of the fixed housing (EINH) is fixedly connected in a peripheral manner to a first seal element, - in which a second seal element is rotatably connected to the coupling and the second seal element at least partially surrounds the coupling, - in which, in the region of the opening, the two seal elements (DIE1, DIE2) at least partially overlap in different angular positions of the coupling, - in which the two seal elements (DIE1, DIE2) are coupled to one another by way of pressure in order to protect the opening from the ingress of snow.
A method of designing a 4LP mode optical fiber for an optical transmission system of LP21 mode, said optical fiber comprising a core of pure silica, wherein a refractive index distribution of a clad with respect to the core is a step index type, characterized in that the method comprises: - defining a line LLP02 indicating a bending loss of 0.1 dB/100 turns of the LP02 mode at a wavelength of 1565 nm and at a bending radius of 30 mm; - defining a line CLP31E indicating an effective cut-off value of the LP31 mode at a wavelength of 1530 nm; - determining a core radius value at 10.5 μm and a relative refractive index difference value between the core and the clad at 0.45% from the intersection point between line LLP02 and line CLP31E. - defining a line LLP02 indicating a bending loss of 0.1 dB/100 turns of the LP02 mode at a wavelength of 1565 nm and at a bending radius of 30 mm; - defining a line CLP31E indicating an effective cut-off value of the LP31 mode at a wavelength of 1530 nm; - determining a core radius value at 10.5 μm and a relative refractive index difference value between the core and the clad at 0.45% from the intersection point between line LLP02 and line CLP31E.
A preservative composition comprising a. an amount of a quaternary amine compound, wherein the quaternary amine compound is about 10 wt% to about 20 wt% of the preservative composition and wherein the quaternary amine compound is cetyl pyridinium chloride; b. an effective amount of an antifungal agent, wherein the antifungal agent is about 20 wt% to about 35 wt% of the preservative composition and wherein the antifungal agent is benzoic acid; and c. a solvent; and wherein the antifungal agent and the quaternary amine compound are in a ratio of about 1.5:1 to about 2:1. a. an amount of a quaternary amine compound, wherein the quaternary amine compound is about 10 wt% to about 20 wt% of the preservative composition and wherein the quaternary amine compound is cetyl pyridinium chloride; b. an effective amount of an antifungal agent, wherein the antifungal agent is about 20 wt% to about 35 wt% of the preservative composition and wherein the antifungal agent is benzoic acid; and c. a solvent; and
Lubricant supply system for supplying lubricant to a rolling bearing of a vacuum pump, the lubricant supply system comprising: a lubricant container body defining a lubricant reservoir, the lubricant container body comprising an indentation or through-hole to receive a lubricant transfer device of a vacuum pump; wherein the indentation or through-hole is at least partially surrounded by a collar extending from said lubricant container body, the collar being configured to collect lubricant centrifuged or dripping from the lubricant transfer device; and at least one lubricant return member extending from the lubricant container body and configured to return lubricant; wherein the collar extends less from the lubricant container body than the lubricant return member; characterised in that the collar comprises a porous material in fluid communication with the lubricant container body. a lubricant container body defining a lubricant reservoir, the lubricant container body comprising an indentation or through-hole to receive a lubricant transfer device of a vacuum pump; wherein the indentation or through-hole is at least partially surrounded by a collar extending from said lubricant container body, the collar being configured to collect lubricant centrifuged or dripping from the lubricant transfer device; and at least one lubricant return member extending from the lubricant container body and configured to return lubricant; wherein the collar extends less from the lubricant container body than the lubricant return member; characterised in that the collar comprises a porous material in fluid communication with the lubricant container body.
A compound of Formula I: or a salt or solvate thereof; wherein A is a moiety of Formula X2: G 3 is H, methyl, ethyl, or NH 2; Y is fluoro, chloro, bromo, NH 2, -(C 1 -C 4)alkyl, or -CH 2 N(R B) 2; - - - - - - is an aryl bond; Z isCH or N; R 1 is -(C 1 -C 8)alkyl, -(C 1 -C 8)cycloalkyl, piperidine, or -phenyl, wherein -(Ci-C 8)alkyl is branched or unbranched; each R B is independently H, -(C 1 -C 4)alkyl, -C(=O)(C 1 -C 4)alkyl, or -C(=O)(CH 2)Cl; and Q is H, methyl, ethyl, fluoro, chloro, or bromo, wherein Q is at the ortho-, meta-, or para- position of the -phenyl moiety, wherein the compound is an atropisomer having an -configuration. A is a moiety of Formula X2: G 3 is H, methyl, ethyl, or NH 2; Y is fluoro, chloro, bromo, NH 2, -(C 1 -C 4)alkyl, or -CH 2 N(R B) 2; - - - - - - is an aryl bond; Z isCH or N; R 1 is -(C 1 -C 8)alkyl, -(C 1 -C 8)cycloalkyl, piperidine, or -phenyl, wherein -(Ci-C 8)alkyl is branched or unbranched; each R B is independently H, -(C 1 -C 4)alkyl, -C(=O)(C 1 -C 4)alkyl, or -C(=O)(CH 2)Cl; and Q is H, methyl, ethyl, fluoro, chloro, or bromo, wherein Q is at the ortho-, meta-, or para- position of the -phenyl moiety, wherein the compound is an atropisomer having an -configuration.
An injection method for the injection of water in an internal combustion engine; the injection method comprises the steps of: operating, when the internal combustion engine is turned on, a reversible pump in order to suck water from a tank and feed the water under pressure to at least one injector through a feeding duct; cyclically opening, when the internal combustion engine is turned on, the injector in order to inject the water towards at least one cylinder of the internal combustion engine; and draining the water, when the internal combustion engine is turned off, from the injector and the feeding duct by operating the pump in order to suck the water from the feeding duct and feed the water into the tank and by opening a release valve, which is arranged along the feeding duct and connects the feeding duct to an outside; the injection method is characterized in that it comprises the further step of: measuring a pressure (P H2O) of the water inside a common rail to which the injector is connected; waiting a first amount of time between the activation of the pump to suck the water from the feeding duct and the opening of the release valve; and determining the end of the first amount of time as a function of the pressure (P H2O) of the water inside the common rail. operating, when the internal combustion engine is turned on, a reversible pump in order to suck water from a tank and feed the water under pressure to at least one injector through a feeding duct; cyclically opening, when the internal combustion engine is turned on, the injector in order to inject the water towards at least one cylinder of the internal combustion engine; and draining the water, when the internal combustion engine is turned off, from the injector and the feeding duct by operating the pump in order to suck the water from the feeding duct and feed the water into the tank and by opening a release valve, which is arranged along the feeding duct and connects the feeding duct to an outside; the injection method is characterized in that it comprises the further step of: measuring a pressure (P H2O) of the water inside a common rail to which the injector is connected; waiting a first amount of time between the activation of the pump to suck the water from the feeding duct and the opening of the release valve; and determining the end of the first amount of time as a function of the pressure (P H2O) of the water inside the common rail. measuring a pressure (P H2O) of the water inside a common rail to which the injector is connected; waiting a first amount of time between the activation of the pump to suck the water from the feeding duct and the opening of the release valve; and determining the end of the first amount of time as a function of the pressure (P H2O) of the water inside the common rail.
A method of generating an acoustic model for speech recognition, the method comprising: calculating a noise representation of noise data by using a noise model; and generating the acoustic model using noisy speech training data that comprises speech data and the noise data, a string of phonemes corresponding to the speech data, and the noise representation, wherein the noisy speech training data is defined as input data, wherein the string of phonemes is defined as a target data, wherein the noise representation is defined as another target data, and wherein the acoustic model is trained such that the acoustic model performs classification of phonemes and extraction of noise representation at the same time by using a multi-task learning method. calculating a noise representation of noise data by using a noise model; and generating the acoustic model using noisy speech training data that comprises speech data and the noise data, a string of phonemes corresponding to the speech data, and the noise representation, wherein the noisy speech training data is defined as input data, wherein the string of phonemes is defined as a target data, wherein the noise representation is defined as another target data, and wherein the acoustic model is trained such that the acoustic model performs classification of phonemes and extraction of noise representation at the same time by using a multi-task learning method.
Forklift for the handling of pneumatic tyres provided with transponder; the forklift comprises: a gripping device that makes it possible to pick up a stack of pneumatic tyres each having a central cavity and a transponder; the forklift characterized in that it comprises a reader device, which is provided with an antenna and is suitable to communicate with the transponders of the pneumatic tyres; and in that it comprises a displacement unit, which supports at least the antenna of the reader device and is suitable for moving the antenna between a waiting position wherein the antenna is arranged at a certain distance from the stack of pneumatic tyres carried by the gripping device and a working position wherein the antenna is arranged in close proximity to the stack of pneumatic tyres carried by the gripping device. a gripping device that makes it possible to pick up a stack of pneumatic tyres each having a central cavity and a transponder; the forklift characterized in that it comprises a reader device, which is provided with an antenna and is suitable to communicate with the transponders of the pneumatic tyres; and in that it comprises a displacement unit, which supports at least the antenna of the reader device and is suitable for moving the antenna between a waiting position wherein the antenna is arranged at a certain distance from the stack of pneumatic tyres carried by the gripping device and a working position wherein the antenna is arranged in close proximity to the stack of pneumatic tyres carried by the gripping device.
An immunoconjugate comprising a cytotoxic agent and a human or humanized antibody or functional fragment thereof, wherein said antibody or functional fragment thereof comprises an antigen-binding region that is specific for Mesothelin (SEQ ID NO:36), and wherein the antibody binding site includes a CDR1, CDR2, and CDR3 wherein: a) HCDR1 is represented by SEQ ID NO: 3, b) HCDR2 is represented by SEQ ID NO: 6, c) HCDR3 is represented by SEQ ID NO: 9, d) LCDR1 is represented by SEQ ID NO: 12, e) LCDR2 is represented by SEQ ID NO: 15, f) LCDR3 is represented by SEQ ID NO: 19, and wherein the cytotoxic agent is a maytansinoid. a) HCDR1 is represented by SEQ ID NO: 3, b) HCDR2 is represented by SEQ ID NO: 6, c) HCDR3 is represented by SEQ ID NO: 9, d) LCDR1 is represented by SEQ ID NO: 12, e) LCDR2 is represented by SEQ ID NO: 15, f) LCDR3 is represented by SEQ ID NO: 19,