mhurhangee/ep-ind-claims huggingface dataset:
A complex microwave range comprising: a main body provided with a cooking chamber; a first heating device provided with a magnetron supplying high frequency waves to the inside of the cooking chamber in a microwave range mode; a second heating device (50, 70) supplying heat to the cooking chamber to heat food to be cooked within the cooking chamber in an oven mode; tray hanger parts provided on side walls (12, 13) of the cooking chamber and formed of a metal; characterized by a first tray hung on and supported by the tray hanger parts and formed of an electromagnetic wave transmitting material; and a second tray not supported by the tray hanger parts, configured for being mounted on the upper surface of the first tray and formed of a thermally conductive metal, and wherein the first tray is configured for being hung on the tray hanger parts without the second tray in the microwave range mode, and the first tray with the second tray mounted on the upper surface of the first tray is configured for being hung on the tray hanger parts in the oven mode, and wherein the second tray has a smaller size than that of the first tray. a main body provided with a cooking chamber; a first heating device provided with a magnetron supplying high frequency waves to the inside of the cooking chamber in a microwave range mode; a second heating device (50, 70) supplying heat to the cooking chamber to heat food to be cooked within the cooking chamber in an oven mode; tray hanger parts provided on side walls (12, 13) of the cooking chamber and formed of a metal; characterized by a first tray hung on and supported by the tray hanger parts and formed of an electromagnetic wave transmitting material; and a second tray not supported by the tray hanger parts, configured for being mounted on the upper surface of the first tray and formed of a thermally conductive metal, and wherein the first tray is configured for being hung on the tray hanger parts without the second tray in the microwave range mode, and the first tray with the second tray mounted on the upper surface of the first tray is configured for being hung on the tray hanger parts in the oven mode, and wherein the second tray has a smaller size than that of the first tray.
Beam propagation camera for measuring the far-field properties or focusing properties and the focus position of a light beam, comprising: - at least one beam-splitting optical arrangement effecting beam splitting of a beam that is incident on the beam-splitting optical arrangement along an optical axis of the beam propagation camera during the operation of the beam propagation camera into seven partial beams comprising the -3 to +3 order of diffraction; and - a sensor arrangement for capturing said partial beams and for measuring the spot sizes produced in each case by said partial beams on the sensor arrangement; - wherein the beam-splitting optical arrangement has a diffractive structure and a refractive optical element, wherein the diffractive structure is arranged in a decentred manner with respect to the optical axis; - wherein the diffractive structure is designed such that at least two of the partial beams are spatially separated from one another on the sensor arrangement and have a focus offset in the longitudinal direction with respect to the optical axis, and - wherein the diffractive structure has a focal length ƒ 1, which denotes the focal length of the first positive order of diffraction, and the refractive optical element has a focal length ƒ 0, with the ratio ƒ 1 /ƒ 0 being at least 4. - at least one beam-splitting optical arrangement effecting beam splitting of a beam that is incident on the beam-splitting optical arrangement along an optical axis of the beam propagation camera during the operation of the beam propagation camera into seven partial beams comprising the -3 to +3 order of diffraction; and - a sensor arrangement for capturing said partial beams and for measuring the spot sizes produced in each case by said partial beams on the sensor arrangement; - wherein the beam-splitting optical arrangement has a diffractive structure and a refractive optical element, wherein the diffractive structure is arranged in a decentred manner with respect to the optical axis; - wherein the diffractive structure is designed such that at least two of the partial beams are spatially separated from one another on the sensor arrangement and have a focus offset in the longitudinal direction with respect to the optical axis, and - wherein the diffractive structure has a focal length ƒ 1, which denotes the focal length of the first positive order of diffraction, and the refractive optical element has a focal length ƒ 0, with the ratio ƒ 1 /ƒ 0 being at least 4.
A processor comprising: decode circuitry to decode an instruction having fields for an opcode, a first source matrix operand identifier, a second source matrix operand identifier, and a destination matrix operand identifier; and execution circuitry to execute the decoded instruction to generate a fault when the first source matrix operand has a different number of data elements than the second source matrix operand, and/or generate a fault when a number of rows associated with the first source matrix operand is different than a number of rows associated with the second source matrix operand, and/or generate a fault when a number of columns associated with the first source matrix operand is different than a number of columns associated with the second source matrix operand; and if the fault has not been generated, then, for each data element position of the identified first source matrix operand: add a first data value at that data element position to a second data value at a corresponding data element position of the identified second source matrix operand, and store a result of the addition into a corresponding data element position of the identified destination matrix operand. decode circuitry to decode an instruction having fields for an opcode, a first source matrix operand identifier, a second source matrix operand identifier, and a destination matrix operand identifier; and execution circuitry to execute the decoded instruction to generate a fault when the first source matrix operand has a different number of data elements than the second source matrix operand, and/or generate a fault when a number of rows associated with the first source matrix operand is different than a number of rows associated with the second source matrix operand, and/or generate a fault when a number of columns associated with the first source matrix operand is different than a number of columns associated with the second source matrix operand; and if the fault has not been generated, then, for each data element position of the identified first source matrix operand: add a first data value at that data element position to a second data value at a corresponding data element position of the identified second source matrix operand, and store a result of the addition into a corresponding data element position of the identified destination matrix operand. add a first data value at that data element position to a second data value at a corresponding data element position of the identified second source matrix operand, and store a result of the addition into a corresponding data element position of the identified destination matrix operand.
A device (200, 210, 900, 910) comprising: at least one processor (1200, 1100) configured to receive at least one microphone signal from at least one microphone; and at least one memory (1210, 1110) storing program code executable by at least one processor to perform operations comprising: identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal. at least one processor (1200, 1100) configured to receive at least one microphone signal from at least one microphone; and at least one memory (1210, 1110) storing program code executable by at least one processor to perform operations comprising: identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal. identifying occurrence of a trigger sound in the at least one microphone signal; predicting probability of occurrence of a subsequent sound having a defined disturbance characteristic and satisfying a defined disturbance level in the at least one microphone signal following the occurrence of the trigger sound; when the probability of occurrence of the subsequent sound having the defined disturbance characteristic satisfies a remedial action rule, triggering a remedial action to be performed to mute the at least one microphone signal or to suppress the subsequent sound in the at least one microphone signal.
A computer-implemented method comprising: obtaining, from a language model of an automated speech recognizer, an initial candidate transcription of an utterance based on acoustic scores generated by an acoustic model of the automated speech recognizer for sub-words corresponding to acoustic data received by the automated speech recognizer, the acoustic data encoding the utterance; identifying, based on a language model that is not used by the automated speech recognizer in generating the initial candidate transcription, one or more terms that are phonetically similar to one or more terms that occur in the initial candidate transcription; generating one or more additional candidate transcriptions based on the identified one or more terms, for each of the candidate transcriptions, determining a likelihood score that reflects how frequently the candidate transcription is expected to be said; for each of the candidate transcriptions, expanding the candidate transcription into sub-words, identifying acoustic scores from the acoustic model that correspond to each of the sub-words of the candidate transcription and determining an acoustic match score from the acoustic scores identified from the acoustic model for the sub-words of the candidate transcription, the acoustic match score reflecting a phonetic similarity between the candidate transcription and the utterance; and selecting a transcription from among the candidate transcriptions based on respective overall scores generated based on a combination of the acoustic match scores and the likelihood scores. obtaining, from a language model of an automated speech recognizer, an initial candidate transcription of an utterance based on acoustic scores generated by an acoustic model of the automated speech recognizer for sub-words corresponding to acoustic data received by the automated speech recognizer, the acoustic data encoding the utterance; identifying, based on a language model that is not used by the automated speech recognizer in generating the initial candidate transcription, one or more terms that are phonetically similar to one or more terms that occur in the initial candidate transcription; generating one or more additional candidate transcriptions based on the identified one or more terms, for each of the candidate transcriptions, determining a likelihood score that reflects how frequently the candidate transcription is expected to be said; for each of the candidate transcriptions, expanding the candidate transcription into sub-words, identifying acoustic scores from the acoustic model that correspond to each of the sub-words of the candidate transcription and determining an acoustic match score from the acoustic scores identified from the acoustic model for the sub-words of the candidate transcription, the acoustic match score reflecting a phonetic similarity between the candidate transcription and the utterance; and selecting a transcription from among the candidate transcriptions based on respective overall scores generated based on a combination of the acoustic match scores and the likelihood scores.
A method for washing ash comprising the steps of: a) collecting ash of an incineration process; b) combining the ash with an aqueous medium to provide an aqueous slurry; c) mixing the aqueous slurry for solving recyclable compounds from the solid ash particles; d) separating an aqueous liquid stream containing solved recyclable compounds from a stream containing the residual solid ash particles; wherein the aqueous slurry is mixed in at least one extraction vessel characterized in that the at least one extraction vessel has a round bottom instead of a conical bottom. a) collecting ash of an incineration process; b) combining the ash with an aqueous medium to provide an aqueous slurry; c) mixing the aqueous slurry for solving recyclable compounds from the solid ash particles; d) separating an aqueous liquid stream containing solved recyclable compounds from a stream containing the residual solid ash particles; wherein the aqueous slurry is mixed in at least one extraction vessel characterized in that the at least one extraction vessel has a round bottom instead of a conical bottom.
A sheet formed from a carbon fiber reinforced thermoplastic resin comprising carbon fibers, dichloromethane and a thermoplastic resin containing at least one of a polycarbonate resin and a polyarylate resin, wherein at least one of the polycarbonate resin and the polyarylate resin has a terminal structure derived from a monohydric phenol represented by General formula below and a constituent unit derived from a dihydric phenol, and the content of dichloromethane contained in the sheet is 10-10,000 ppm by mass, measured according to the method described in the present specification: (in General formula, R 1 represents a C8-C36 alkyl group or a C8-C36 alkenyl group, and R 2 -R 5 each independently represent hydrogen, a halogen, an optionally substituted C1-C20 alkyl group or an optionally substituted C6-C12 aryl group).
An inhaler device for the storage and delivery of an inhalable liquid to a patient, said device comprising a body which comprises: A receptacle comprising a passive evaporation support material; A receptacle lid; At least one air inlet opening; and At least one vapour inhalation opening; wherein the passive evaporation support material is pre-loaded with an inhalable liquid which forms a vapour upon storage, characterised in that the body is a puck-shaped body which forms a vapour chamber outside the passive evaporation support material for storing the vapour, wherein when the receptacle lid is in a closed position, the air inlet and vapour inhalation openings are closed for storing the inhalable liquid, and when the receptacle lid is in an opened position, the air inlet and vapour inhalation openings are open and provide an air/vapour pathway through the air inlet opening, the vapour chamber and the vapour inhalation opening such that the stored vapour in the vapour chamber is available for direct administration to a patient. A receptacle comprising a passive evaporation support material; A receptacle lid; At least one air inlet opening; and At least one vapour inhalation opening; the body is a puck-shaped body which forms a vapour chamber outside the passive evaporation support material for storing the vapour, wherein when the receptacle lid is in a closed position, the air inlet and vapour inhalation openings are closed for storing the inhalable liquid, and when the receptacle lid is in an opened position, the air inlet and vapour inhalation openings are open and provide an air/vapour pathway through the air inlet opening, the vapour chamber and the vapour inhalation opening such that the stored vapour in the vapour chamber is available for direct administration to a patient.
A power control device that, together with a storage battery, forms energy storage equipment, the power control device comprising: a reception portion that receives instructions from a power management device that manages charge and discharge of the storage battery; a power conditioner that supplies electricity to a predetermined destination for supply; a control portion that controls operation of the power conditioner based on the instructions from the power management device; and characterized by an identifier generation portion that generates time information by measuring time, wherein the time information indicates a time point at which a query about the stored electricity amount information is received from the power management device; and a transmission portion that transmits stored electricity amount information indicating an amount of stored electricity in the storage battery, and the time information to the power management device. a reception portion that receives instructions from a power management device that manages charge and discharge of the storage battery; a power conditioner that supplies electricity to a predetermined destination for supply; a control portion that controls operation of the power conditioner based on the instructions from the power management device; and characterized by an identifier generation portion that generates time information by measuring time, wherein the time information indicates a time point at which a query about the stored electricity amount information is received from the power management device; and a transmission portion that transmits stored electricity amount information indicating an amount of stored electricity in the storage battery, and the time information to the power management device.
An image registration apparatus, comprising at least one processor configured to: project a first image to a first model to generate a first intermediate image, map the first intermediate image to a first output model to generate a first output image, project a second image to a second model to generate a second intermediate image, and map the second intermediate image to a second output model to generate a second output image, characterized in that the at least one processor is further configured to: determine a match rate between the first output image and the second output image and transform at least one of a shape of the first model and a shape of the second model based on a determined match rate and a preset reference match rate, wherein the first model corresponds to a first part of a preset three-dimensional (3-D) model and an initial shape of the first model is the same as a shape of the first output model, wherein the second model corresponds to a second part of the preset 3-D model and an initial shape of the second model is the same as a shape of the second output model, wherein the first output image is arranged in the preset 3D model at a position corresponding to the first output model and the second output image is disposed in the preset 3D model at a position corresponding to the second output model, the first output model and the second output model being arranged adjacent to each other with one side of the first output model forming a boundary line with one side of the second output model or the first output model and the second output model being arranged having overlapping regions. project a first image to a first model to generate a first intermediate image, map the first intermediate image to a first output model to generate a first output image, project a second image to a second model to generate a second intermediate image, and map the second intermediate image to a second output model to generate a second output image, the at least one processor is further configured to: determine a match rate between the first output image and the second output image and transform at least one of a shape of the first model and a shape of the second model based on a determined match rate and a preset reference match rate, wherein the first model corresponds to a first part of a preset three-dimensional (3-D) model and an initial shape of the first model is the same as a shape of the first output model, wherein the second model corresponds to a second part of the preset 3-D model and an initial shape of the second model is the same as a shape of the second output model, wherein the first output image is arranged in the preset 3D model at a position corresponding to the first output model and the second output image is disposed in the preset 3D model at a position corresponding to the second output model, the first output model and the second output model being arranged adjacent to each other with one side of the first output model forming a boundary line with one side of the second output model or the first output model and the second output model being arranged having overlapping regions.
A fluid cartridge comprising: a plastic fluid body having a bottom wall having a fluid supply opening therein; a metal insert adhesively attached to the bottom wall, the metal insert having a fluid supply slot therein corresponding to the fluid supply opening in the bottom wall, a die bond surface adjacent to the fluid supply slot for adhesively attaching an ejection head chip thereto, and a plurality of air vents adjacent to the die bond surface; and an ejection head chip adhesively attached to the die bond surface of the metal insert through a die bond adhesive, the fluid cartridge being characterized in that the air vents are configured to enable air to escape from the die bond adhesive. a plastic fluid body having a bottom wall having a fluid supply opening therein; a metal insert adhesively attached to the bottom wall, the metal insert having a fluid supply slot therein corresponding to the fluid supply opening in the bottom wall, a die bond surface adjacent to the fluid supply slot for adhesively attaching an ejection head chip thereto, and a plurality of air vents adjacent to the die bond surface; and an ejection head chip adhesively attached to the die bond surface of the metal insert through a die bond adhesive, the fluid cartridge being characterized in that the air vents are configured to enable air to escape from the die bond adhesive.
Refrigerating appliance, in particular a household refrigerating appliance, having a securing element (15, 20, 22, 24, 29, 30) for detachably securing compartment bases,and a compartment base, wherein a coupling element (18, 19, 21, 26, 28, 31) that interacts with the securing element (15, 20, 22, 24, 29, 30) is arranged on the compartment base, wherein the compartment base is a frameless compartment base, and an adapter strip (2, 3) having the coupling element (18, 19, 21, 26, 28, 31) is arranged laterally on the compartment base, characterised in that the adapter strip (2, 3) has a base strip arranged below the compartment base and comprising at least 50% of the volume of the adapter strip (2, 3), that the coupling element (18, 19, 21, 26, 28, 31) is arranged on the base strip of the adapter strip (2, 3), that the coupling element (18, 19, 21, 26, 28, 31) is embodied as a receptacle (19, 21, 28, 31) which is moulded into an adapter strip, that the coupling element (18, 19, 21, 26, 28, 31) is embodied as a crescent-shaped receptacle, that the coupling element, as a crescent-shaped receptacle, accommodates a fastening element embodied as a contact cam and that the contact cam has a crescent-shaped form.