mhurhangee/ep-ind-claims huggingface dataset:
Electrical cooking appliance for cooking food products, comprising: - a base comprising a cooking plate configured to cook a food, - a cover mounted hinged on the base between an open position wherein a food can be disposed on the cooking plate and a closed position wherein the base and the cover delimit a closed cooking chamber, - a support element which is carried by the cover and which is mounted mobile with respect to the cover, the support element being configured to occupy a rest position wherein, when the cover occupies the closed position, the support element is located facing and in the proximity of the cooking plate and at least one support position wherein, when the cover occupies the closed position, the support element is located facing and at a distance from the cooking plate and bears on a food placed on the cooking plate, characterized in that the support element is configured to come into contact with a food placed on the cooking plate when the cover is moved from the open position to an intermediate position located between the open position and the closed position and being configured to be moved by said food from the rest position to a support position when the cover is moved from the intermediate position to the closed position, and - a measuring device configured to determine a feature representative of the thickness of a food disposed between the cooking plate and the support element. - a base comprising a cooking plate configured to cook a food, - a cover mounted hinged on the base between an open position wherein a food can be disposed on the cooking plate and a closed position wherein the base and the cover delimit a closed cooking chamber, - a support element which is carried by the cover and which is mounted mobile with respect to the cover, the support element being configured to occupy a rest position wherein, when the cover occupies the closed position, the support element is located facing and in the proximity of the cooking plate and at least one support position wherein, when the cover occupies the closed position, the support element is located facing and at a distance from the cooking plate and bears on a food placed on the cooking plate, characterized in that the support element is configured to come into contact with a food placed on the cooking plate when the cover is moved from the open position to an intermediate position located between the open position and the closed position and being configured to be moved by said food from the rest position to a support position when the cover is moved from the intermediate position to the closed position, and - a measuring device configured to determine a feature representative of the thickness of a food disposed between the cooking plate and the support element.
A method for modifying an airfoil shroud located at a tip of an airfoil, the airfoil shroud having a first end edge, a second end edge, a leading edge and a trailing edge, the method comprising: locating a reference location in the first end edge of the airfoil shroud, the reference location including a portion of a fillet, a seal rail extending circumferentially along a radially outer surface of the airfoil shroud, the fillet extending along the radially outer surface and positioned directly adjacent to the seal rail; characterized by forming a compound relief cut in the fillet without performing a weld process on the airfoil shroud to remove the reference location, the compound relief cut having a first cut having a first radius extending from the seal rail towards the first end edge, and a second cut having a second radius extending from an end of the first cut to the first end edge, the second radius being larger than the first radius and the two different radius cuts (521, 523) being joined smoothly together, wherein modifying the airfoil shroud is complete following forming the compound relief cut. locating a reference location in the first end edge of the airfoil shroud, the reference location including a portion of a fillet, a seal rail extending circumferentially along a radially outer surface of the airfoil shroud, the fillet extending along the radially outer surface and positioned directly adjacent to the seal rail; characterized by forming a compound relief cut in the fillet without performing a weld process on the airfoil shroud to remove the reference location, the compound relief cut having a first cut having a first radius extending from the seal rail towards the first end edge, and a second cut having a second radius extending from an end of the first cut to the first end edge, the second radius being larger than the first radius and the two different radius cuts (521, 523) being joined smoothly together, wherein modifying the airfoil shroud is complete following forming the compound relief cut.
Process for recovering an isoprenoid compound produced by fermentation from a fermentation medium comprising: (a) demulsifying the fermentation medium or a fraction thereof in presence of a salt and a surfactant by addition of the salt and surfactant, the salt being at a concentration of 0.01 mol/L or more, thereby generating a stream having an organic phase containing the isoprenoid compound and a phase heavier than the organic phase, and (b) separating the stream obtained in step (a) into the organic phase containing the isoprenoid compound, the phase heavier than the organic phase, and optionally a solid phase containing host cell debris and cells wherein, no acid or base is added to the fermentation medium or the fraction thereof prior or during the demulsifying step (a). (a) demulsifying the fermentation medium or a fraction thereof in presence of a salt and a surfactant by addition of the salt and surfactant, the salt being at a concentration of 0.01 mol/L or more, thereby generating a stream having an organic phase containing the isoprenoid compound and a phase heavier than the organic phase, and (b) separating the stream obtained in step (a) into the organic phase containing the isoprenoid compound, the phase heavier than the organic phase, and optionally a solid phase containing host cell debris and cells
A compound for use in a method of treating multiple myeloma, wherein the compound is a compound of formula 1 or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof, wherein the method comprises administering to a patient in need thereof a therapeutically effective amount of the compound formula 1, or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof, in combination with a bispecific antibody comprising a first binding part specifically binding to human B cell maturation antigen (BCMA) and a second binding part specifically binding to human CD3ε, characterized in that said first binding part comprises a VH region comprising a CDR1H region of SEQ ID NO:21, a CDR2H region of SEQ ID NO:22 and a CDR3H region of SEQ ID NO: 17 and a VL region comprising a CDR3L region of SEQ ID NO:20 and a CDR1L and CDR2L region combination selected from the group of i) CDR1L region of SEQ ID NO:23 and CDR2L region of SEQ ID NO:24, ii) CDR1L region of SEQ ID NO:25 and CDR2L region of SEQ ID NO:26, or iii) CDR1L region of SEQ ID NO:27 and CDR2L region of SEQ ID NO:28. or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof, wherein the method comprises administering to a patient in need thereof a therapeutically effective amount of the compound formula 1, or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof, in combination with a bispecific antibody comprising a first binding part specifically binding to human B cell maturation antigen (BCMA) and a second binding part specifically binding to human CD3ε, characterized in that said first binding part comprises a VH region comprising a CDR1H region of SEQ ID NO:21, a CDR2H region of SEQ ID NO:22 and a CDR3H region of SEQ ID NO: 17 and a VL region comprising a CDR3L region of SEQ ID NO:20 and a CDR1L and CDR2L region combination selected from the group of i) CDR1L region of SEQ ID NO:23 and CDR2L region of SEQ ID NO:24, ii) CDR1L region of SEQ ID NO:25 and CDR2L region of SEQ ID NO:26, or iii) CDR1L region of SEQ ID NO:27 and CDR2L region of SEQ ID NO:28. i) CDR1L region of SEQ ID NO:23 and CDR2L region of SEQ ID NO:24, ii) CDR1L region of SEQ ID NO:25 and CDR2L region of SEQ ID NO:26, or iii) CDR1L region of SEQ ID NO:27 and CDR2L region of SEQ ID NO:28.
Device for calculating loudspeaker signals for a plurality of loudspeakers while using a plurality of audio sources, an audio source comprising an audio signal, said device comprising: a forward transform stage for transforming each audio signal, block-by-block, to a spectral domain so as to obtain for each audio signal a plurality of temporally consecutive short-term spectra; a memory for storing a plurality of temporally consecutive short-term spectra for each audio signal; a memory access controller for accessing a specific short-term spectrum among the plurality of temporally consecutive short-term spectra for a combination consisting of a loudspeaker and an audio signal on the basis of a delay value; a filter stage for filtering the specific short-term spectrum for the combination of the audio signal and the loudspeaker by using a filter provided for the combination of the audio signal and the loudspeaker, so that a filtered shot-term spectrum is obtained for each combination of an audio signal and a loudspeaker; a summing stage for summing up the filtered short-term spectra for a loudspeaker so as to obtain summed-up short-term spectra for each loudspeaker; and a backtransform stage for backtransforming, block-by-block, summed-up short-term spectra for the loudspeakers to a time domain so as to obtain the loudspeaker signals. a forward transform stage for transforming each audio signal, block-by-block, to a spectral domain so as to obtain for each audio signal a plurality of temporally consecutive short-term spectra; a memory for storing a plurality of temporally consecutive short-term spectra for each audio signal; a memory access controller for accessing a specific short-term spectrum among the plurality of temporally consecutive short-term spectra for a combination consisting of a loudspeaker and an audio signal on the basis of a delay value; a filter stage for filtering the specific short-term spectrum for the combination of the audio signal and the loudspeaker by using a filter provided for the combination of the audio signal and the loudspeaker, so that a filtered shot-term spectrum is obtained for each combination of an audio signal and a loudspeaker; a summing stage for summing up the filtered short-term spectra for a loudspeaker so as to obtain summed-up short-term spectra for each loudspeaker; and a backtransform stage for backtransforming, block-by-block, summed-up short-term spectra for the loudspeakers to a time domain so as to obtain the loudspeaker signals.
An apparatus for monitoring the respiration of a subject, the apparatus comprising: - a sensor for measuring the concentration of nitric oxide, NO, in air exhaled by the subject and providing samples of the concentration of NO throughout an exhalation by the subject; and - a processor configured to provide an output indicating the concentration of NO in bronchia of the subject from measurements of the concentration of NO in a selected portion of the exhaled air, the selected portion of the exhaled air corresponding to air from the bronchia of the subject, wherein the processor is configured to provide the output by selecting an appropriate one or ones of the samples that correspond to measurement of the air from the bronchia of the subject and to determine the concentration of NO in the selected portion of the exhaled air over a plurality of exhalations, characterized in that the processor is configured to examine the samples of the concentration of NO throughout the exhalation by the subject, to identify a peak or peaks in the samples of the concentration of NO and to select an appropriate one or ones of the samples as those samples that represent the bronchia of the subject based on the timing of the peak or peaks in the concentration of NO, and provide the output as an average of the concentration of NO in the selected portion over the plurality of exhalations. - a sensor for measuring the concentration of nitric oxide, NO, in air exhaled by the subject and providing samples of the concentration of NO throughout an exhalation by the subject; and - a processor configured to provide an output indicating the concentration of NO in bronchia of the subject from measurements of the concentration of NO in a selected portion of the exhaled air, the selected portion of the exhaled air corresponding to air from the bronchia of the subject, wherein the processor is configured to provide the output by selecting an appropriate one or ones of the samples that correspond to measurement of the air from the bronchia of the subject and to determine the concentration of NO in the selected portion of the exhaled air over a plurality of exhalations, characterized in that the processor is configured to examine the samples of the concentration of NO throughout the exhalation by the subject, to identify a peak or peaks in the samples of the concentration of NO and to select an appropriate one or ones of the samples as those samples that represent the bronchia of the subject based on the timing of the peak or peaks in the concentration of NO, and provide the output as an average of the concentration of NO in the selected portion over the plurality of exhalations.
An aluminum alloy comprising a) from 9 to 14 % by mass of magnesium (Mg); b) from 0.15 to 1 % by mass of titanium (Ti); c) 0.1 % by mass or less of manganese (Mn); d) 0.1 % by mass or less of iron (Fe); e) from 0.001 to 0.1 % by mass of beryllium (Be); f) from 0.03 to 0.2 % by mass of boron; g) 1 % by mass or less of silicon (Si); h) optionally 0.01 % by mass or less of copper (Cu); and i) optionally 0.01 % by mass or less of zinc (Zn); with the balance being aluminum (Al); each in relation to the total mass of the alloy composition, and wherein all compounds of the alloy add up to a total of 100 % by mass, and wherein the aluminium alloy comprises inevitable impurities. a) from 9 to 14 % by mass of magnesium (Mg); b) from 0.15 to 1 % by mass of titanium (Ti); c) 0.1 % by mass or less of manganese (Mn); d) 0.1 % by mass or less of iron (Fe); e) from 0.001 to 0.1 % by mass of beryllium (Be); f) from 0.03 to 0.2 % by mass of boron; g) 1 % by mass or less of silicon (Si); h) optionally 0.01 % by mass or less of copper (Cu); and i) optionally 0.01 % by mass or less of zinc (Zn);
A process for preparing a catalyst material, said catalyst material comprising a support material, a first metal and one or more second metals, wherein the first metal and the second metal(s) are alloyed and wherein the first metal is a platinum group metal and the second metal(s) is selected from the group of transition metals and tin provided the second metal(s) is different to the first metal, said process comprising the steps: (i) providing a catalyst material precursor comprising the first metal supported on the support material; (ii) depositing a silicon oxide precursor and one or more second metal precursors on the catalyst material precursor; (iii) carrying out a first heat treatment step to convert the silicon oxide precursor to silicon oxide; (iv) carrying out a second heat treatment step to alloy the first metal and the second metal(s); and (v) removal of at least some of the silicon oxide to give the catalyst material. (i) providing a catalyst material precursor comprising the first metal supported on the support material; (ii) depositing a silicon oxide precursor and one or more second metal precursors on the catalyst material precursor; (iii) carrying out a first heat treatment step to convert the silicon oxide precursor to silicon oxide; (iv) carrying out a second heat treatment step to alloy the first metal and the second metal(s); and (v) removal of at least some of the silicon oxide to give the catalyst material.
An ultrasonic diagnostic imaging system for assessing the progress of tumor therapy comprising: an ultrasound probe for acquiring a sequence of ultrasound images of a tumor and its adjoining tissue as a contrast agent perfuses the tissue; a time-intensity parameter calculator which computes a wash-in parameter of the contrast agent for the tumor and for normal tissue; and a ratio calculator which computes a ratio of the wash-in parameter of the tumor and the wash-in parameter of the normal tissue, characterized in that the sequence of ultrasound images contains contrast agent echo data; and wherein the time-intensity parameter calculator further fits a curve to the contrast agent echo data. an ultrasound probe for acquiring a sequence of ultrasound images of a tumor and its adjoining tissue as a contrast agent perfuses the tissue; a time-intensity parameter calculator which computes a wash-in parameter of the contrast agent for the tumor and for normal tissue; and a ratio calculator which computes a ratio of the wash-in parameter of the tumor and the wash-in parameter of the normal tissue, characterized in that the sequence of ultrasound images contains contrast agent echo data; and wherein the time-intensity parameter calculator further fits a curve to the contrast agent echo data.
A power battery top cap structure, comprising: a first electrode assembly comprising a first electrode column, a first seal member, and a first connection block, wherein the first electrode column comprises an upper section and a lower section, both a material forming the upper section and a material forming the first connection block comprise a first base metal, a material forming the lower section comprises a second base metal, wherein the first base metal is different from the second base metal, wherein the upper section comprises a step portion, and the lower section is joined with a bottom surface of the upper section, and wherein the first seal member comprises an extending portion; a top cap piece comprising a first electrode column hole, wherein the upper section passes through the first electrode column hole, wherein the step portion and the lower section are below the top cap piece, the extending portion is disposed between a lower surface of the top cap piece and the step portion, the first connection block is above the top cap piece, and a top portion of the upper section is connected with the first connection block; and a second electrode assembly that is attached to the top cap piece. a first electrode assembly comprising a first electrode column, a first seal member, and a first connection block, wherein the first electrode column comprises an upper section and a lower section, both a material forming the upper section and a material forming the first connection block comprise a first base metal, a material forming the lower section comprises a second base metal, wherein the first base metal is different from the second base metal, wherein the upper section comprises a step portion, and the lower section is joined with a bottom surface of the upper section, and wherein the first seal member comprises an extending portion; a top cap piece comprising a first electrode column hole, wherein the upper section passes through the first electrode column hole, wherein the step portion and the lower section are below the top cap piece, the extending portion is disposed between a lower surface of the top cap piece and the step portion, the first connection block is above the top cap piece, and a top portion of the upper section is connected with the first connection block; and a second electrode assembly that is attached to the top cap piece.
Illumination system for a fluorescence microscope for observation of an object containing at least one fluorophore, comprising an illumination device, the illumination device having an emission spectrum which comprises fluorescence excitation wavelengths of the at least one fluorophore and visible-light background illumination wavelengths which differ from the fluorescence excitation wavelengths, further comprising an illumination filter for arrangement between the illumination device and the object, the illumination filter having at least one fluorescence excitation passband which is limited to the fluorescence excitation wavelengths and at least one background illumination passband which comprises the visible-light background illumination wavelengths, wherein the transmissivity of the fluorescence excitation passband is larger than the transmissivity of the background illumination passband and wherein the width of the fluorescence excitation passband is smaller than the width of the background illumination passband, characterized in that the intensity of visible-light background illumination wavelengths has at least a local maximum at a color complementary to fluorescence emission wavelengths.
A solder alloy consisting of, by mass, 0.1 to 1.5% Ag; 0.5 to 0.75% Cu; 0.01-0.04% Ni wherein 12.5 ≤ Cu/Ni ≤ 100; and the balance of Sn and unavoidable impurities. 0.1 to 1.5% Ag; 0.5 to 0.75% Cu; 0.01-0.04% Ni wherein 12.5 ≤ Cu/Ni ≤ 100; and
An apparatus comprising: a substrate (100, 100') comprising a front side and a backside; at least one device on the front side of the substrate (100, 100'); at least one crack stop in the substrate(100, 100'), wherein the at least one crack stop is separate from the at least one device and aligned in a circular pattern along the perimeter of the substrate (100, 100'); characterized in that there is at least one via through the substrate (100, 100'), wherein the at least one via provides backside to front side communication for the at least one device. a substrate (100, 100') comprising a front side and a backside; at least one device on the front side of the substrate (100, 100'); at least one crack stop in the substrate(100, 100'), wherein the at least one crack stop is separate from the at least one device and aligned in a circular pattern along the perimeter of the substrate (100, 100'); characterized in that there is at least one via through the substrate (100, 100'), wherein the at least one via provides backside to front side communication for the at least one device.
A method for performing echo estimation or echo management on an input audio signal, said method including steps of: (a) determining an M-bin, frequency domain representation of the input audio signal, and a sparse prediction filter set consisting of N prediction filters, where each of the N prediction filters is used to process audio data values in a respective bin of a selected N-bin subset of the M-bin frequency domain representation, where N and M are positive integers and N is less than M; and (b) performing echo estimation on the input audio signal, including by adapting the N prediction filters to generate a set of N adapted prediction filter impulse responses, and generating an estimate of echo content of the input audio signal including by processing the N adapted prediction filter impulse responses. (a) determining an M-bin, frequency domain representation of the input audio signal, and a sparse prediction filter set consisting of N prediction filters, where each of the N prediction filters is used to process audio data values in a respective bin of a selected N-bin subset of the M-bin frequency domain representation, where N and M are positive integers and N is less than M; and (b) performing echo estimation on the input audio signal, including by adapting the N prediction filters to generate a set of N adapted prediction filter impulse responses, and generating an estimate of echo content of the input audio signal including by processing the N adapted prediction filter impulse responses.