mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detection of one of a first and a second isotope of an atomic material, the apparatus comprising: a first structure (54; 72; 102'); a first integrating detector (56; 74; 104) operatively positioned to detect a signal A from said first structure (54; 72; 102'); wherein said first structure (54; 72; 102') comprises a portion A that consist essentially of said first isotope of said atomic material, wherein said first structure (54; 72; 102') is configured to intercept at least some portion of a mono-energetic gamma-ray (MEGa-ray) beam (50; 70; 100); and wherein the first integrating detector (56; 74; 104) is provided to measure the total power scattered from the first structure (54; 72; 102'); the apparatus being characterized in that it comprises a second structure (58; 82; 102") and a second integrating detector (60; 84; 104) operatively positioned to detect a signal B from said second structure (58; 82; 102"); wherein said first structure (54; 72; 102') and said second structure (58; 82; 102") comprise the same said atomic material, wherein said second structure (58; 82; 102") comprises a portion B that consists essentially of said second isotope of said atomic material; wherein said second structure (58; 82; 102") is configured to intercept at least some portion of the mono-energetic gamma-ray (MEGa-ray) beam (50; 70; 100); and wherein the second integrating detector (60; 84; 104) is provided to measure the total power scattered from the second structure (58; 82; 102"). a first structure (54; 72; 102'); a first integrating detector (56; 74; 104) operatively positioned to detect a signal A from said first structure (54; 72; 102'); wherein said first structure (54; 72; 102') comprises a portion A that consist essentially of said first isotope of said atomic material, wherein said first structure (54; 72; 102') is configured to intercept at least some portion of a mono-energetic gamma-ray (MEGa-ray) beam (50; 70; 100); and wherein the first integrating detector (56; 74; 104) is provided to measure the total power scattered from the first structure (54; 72; 102'); the apparatus being characterized in that it comprises a second structure (58; 82; 102") and a second integrating detector (60; 84; 104) operatively positioned to detect a signal B from said second structure (58; 82; 102"); wherein said first structure (54; 72; 102') and said second structure (58; 82; 102") comprise the same said atomic material, wherein said second structure (58; 82; 102") comprises a portion B that consists essentially of said second isotope of said atomic material; wherein said second structure (58; 82; 102") is configured to intercept at least some portion of the mono-energetic gamma-ray (MEGa-ray) beam (50; 70; 100); and wherein the second integrating detector (60; 84; 104) is provided to measure the total power scattered from the second structure (58; 82; 102").
A safety system for preventing the escape of harmful mediums from an injection system of an exhaust system of a diesel engine, having at least one catching part, which, in a sealed fashion, at least partially encompasses a potential exit point between an injection valve or injector and wall segments of a combustion chamber for the respective medium; the medium settles on the catching part and can be conveyed out of the catching part after having been collected therein; the catching part has a trough-like collecting part and an inner wall; and the catching part encompasses the potential exit point for the respective medium with a predeterminable spacing such that the medium to be caught at least partially settles in a condensing fashion on the inner wall of the catching part in order for the condensate that has collected in the trough-like collecting part of the catching part to be conveyed out of the latter; the condensate, predominantly in the form of droplets of fuel on the inner wall, can be moved downward to the collecting part by the force of gravity; at its deepest part, the collecting part is provided with an outlet line or return line and the collecting part is embodied in the form of a formed sheet metal part.
A channel quality information reporting method, comprising: obtaining, by user equipment, UE, a reporting manner of reporting a reference signal index and reference signal received power, RSRP, corresponding to the reference signal index by the UE; and reporting, by the UE, the reference signal index and the RSRP corresponding to the reference signal index to a base station using the reporting manner; wherein the reporting manner comprises a reporting granularity; wherein the reporting granularity comprises a first reporting granularity and a second reporting granularity, wherein the first reporting granularity is greater than the second reporting granularity; wherein when the reporting, by the UE, the reference signal index and the RSRP is on a physical uplink control channel, the reporting granularity is the first reporting granularity, and when the reporting, by the UE, the reference signal index and the RSRP is on a physical uplink shared channel, the reporting granularity is the second reporting granularity; and wherein the method further comprises determining, by the UE, the reporting granularity based on the RSRP. obtaining, by user equipment, UE, a reporting manner of reporting a reference signal index and reference signal received power, RSRP, corresponding to the reference signal index by the UE; and reporting, by the UE, the reference signal index and the RSRP corresponding to the reference signal index to a base station using the reporting manner; wherein the reporting manner comprises a reporting granularity; wherein the reporting granularity comprises a first reporting granularity and a second reporting granularity, wherein the first reporting granularity is greater than the second reporting granularity; wherein when the reporting, by the UE, the reference signal index and the RSRP is on a physical uplink control channel, the reporting granularity is the first reporting granularity, and when the reporting, by the UE, the reference signal index and the RSRP is on a physical uplink shared channel, the reporting granularity is the second reporting granularity; and wherein the method further comprises determining, by the UE, the reporting granularity based on the RSRP.
An optical device with variable focal length comprising: - a deformable membrane, - a support to which a peripheral anchoring area of said membrane is connected, - a cavity filled with a constant volume of fluid, said cavity being delimited by the membrane, a base opposite the membrane and a wall of the support extending between the base and the membrane, - an actuation device of a region of the membrane located between the peripheral anchoring area and a central part of the membrane, configured to shift said membrane by application of electrical actuation voltage so as to displace some of the volume of fluid, and characterized in that the optical device further comprises a stiffening structure comprising either ribs extending perpendicularly to the surface of the central part of the membrane or a layer extending on the central part of the membrane, said layer having at least two openings, said ribs or openings define separate cells which delimit, in the central part of said membrane, at least two separate deformable regions of said membrane each constituting a respective dioptre of a respective elementary optical system, each elementary optical system comprising said respective deformable region of the membrane, the fluid and the base of the cavity. - a deformable membrane, - a support to which a peripheral anchoring area of said membrane is connected, - a cavity filled with a constant volume of fluid, said cavity being delimited by the membrane, a base opposite the membrane and a wall of the support extending between the base and the membrane, - an actuation device of a region of the membrane located between the peripheral anchoring area and a central part of the membrane, configured to shift said membrane by application of electrical actuation voltage so as to displace some of the volume of fluid, and characterized in that the optical device further comprises a stiffening structure comprising either ribs extending perpendicularly to the surface of the central part of the membrane or a layer extending on the central part of the membrane, said layer having at least two openings, said ribs or openings define separate cells which delimit, in the central part of said membrane, at least two separate deformable regions of said membrane each constituting a respective dioptre of a respective elementary optical system, each elementary optical system comprising said respective deformable region of the membrane, the fluid and the base of the cavity.
A therapeutic agent that antagonizes or inhibits an FGFR2 gene product, for use in a method of treating cholangiocarcinoma in a subject, wherein the cholangiocarcinoma comprises or is identified as having an FGFR2 fusion nucleic acid molecule or an FGFR2 fusion polypeptide, wherein the FGFR2 fusion nucleic acid molecule or the FGFR2 fusion polypeptide is chosen from FGFR2-TACC3, FGFR2-KIAA1598 or BICC1-FGFR2, and wherein the therapeutic agent is selected from the group consisting of: (i) an antibody molecule against the FGFR2 gene product; (ii) a kinase inhibitor that inhibits the FGFR2 gene product; and (iii) a siRNA, an antisense RNA, or other nucleic acid based inhibitor of the FGFR2 gene product. (i) an antibody molecule against the FGFR2 gene product; (ii) a kinase inhibitor that inhibits the FGFR2 gene product; and (iii) a siRNA, an antisense RNA, or other nucleic acid based inhibitor of the FGFR2 gene product.
A computer-implemented depth sensing method, comprising: obtaining image data for a plurality of images from multiple viewpoints, wherein the image data for the plurality of images comprises a reference image and at least one alternate view image; generating a raw depth map containing depth estimates for pixels within the reference image using the image data for the reference image and the image data for the at least one alternate view image using a first depth estimation process, and a confidence map describing reliability of depth estimates contained within the raw depth map; and generating a regularized depth map by: computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map, where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map. obtaining image data for a plurality of images from multiple viewpoints, wherein the image data for the plurality of images comprises a reference image and at least one alternate view image; generating a raw depth map containing depth estimates for pixels within the reference image using the image data for the reference image and the image data for the at least one alternate view image using a first depth estimation process, and a confidence map describing reliability of depth estimates contained within the raw depth map; and generating a regularized depth map by: computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map, where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map. computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map, where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map.
Apparatus (1, 32) for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an irradiation device comprising at least two irradiation elements (4 - 8) arranged as an irradiation array, in particular on at least one common irradiation element carrier, wherein each irradiation element (4 - 8) is adapted to emit an energy beam (11 - 15) guidable or guided along an, in particular at least partially curved, energy beam path (17 - 21) in the build plane, wherein the irradiation array is moveable relative to the build plane, wherein a control unit is provided that is adapted to control an energy input into at least one energy beam path (17 - 21) and/or the spot size of at least one energy beam (11 -15) emitted by at least one irradiation element (4 - 8) based on at least one parameter relating to an at least partially curved section of at least one energy beam path (17 - 21), wherein the apparatus further comprises a carrying device carrying build material arranged in a build plane of the apparatus (1, 32), wherein the carrying device is adapted to pivotably move the build plane relative to at least one irradiation element (4 - 8) of the irradiation array.
A method for producing instant noodles, comprising a superheated steam treatment step of treating, with superheated steam, raw noodle strings prepared from a noodle dough containing 0.5 to 6.0 wt% of a fat or oil and/or an emulsifier that is in a solid powder form at ordinary temperature with respect to the weight of a main raw material powder, wherein the temperature of the superheated steam to which the raw noodle strings are exposed is 120 to 200°C.
A system (100, 200), comprising: a lens comprising an etched pattern; a light-emitting diode ("LED") projector configured to project a pattern of light according to the etched pattern of the lens onto a surface by transmitting light through the lens; a first camera configured to capture first data associated with the projected pattern of light; and a second camera configured to capture second data associated with the projected pattern of light, wherein the system is arranged so that the first data captured by the first camera and the second data captured by the second camera are used to measure profiles of the surface; and one or more processors configured to measure the profiles of the surface based on the first data captured by the first camera and the second data captured by the second camera, wherein the one or more processors are further configured to automatically detect a range to the surface and trigger the first camera and the second camera to shutter when an optimal range to the surface is achieved. a lens comprising an etched pattern; a light-emitting diode ("LED") projector configured to project a pattern of light according to the etched pattern of the lens onto a surface by transmitting light through the lens; a first camera configured to capture first data associated with the projected pattern of light; and a second camera configured to capture second data associated with the projected pattern of light, wherein the system is arranged so that the first data captured by the first camera and the second data captured by the second camera are used to measure profiles of the surface; and one or more processors configured to measure the profiles of the surface based on the first data captured by the first camera and the second data captured by the second camera, wherein the one or more processors are further configured to automatically detect a range to the surface and trigger the first camera and the second camera to shutter when an optimal range to the surface is achieved.
Airfoil arrangement for a turbo-machine comprising at least two adjacent airfoils, wherein each airfoil comprises a high lift or ultra-high lift profile with a suction surface having a point of minimum suction side pressure, a leading edge and a trailing edge, the two adjacent airfoils form a geometric throat, each airfoil is provided with at least one means for reducing separation of the boundary layer on the suction surface, wherein the means is located longitudinally along the airfoil substantially over the entire radial length of the airfoil and comprises at least one step shaped section with at least one inner edge and at least one outer edge, wherein each step shaped section of the airfoil has one outer edge that forms a vortex shedding edge for a controlled generation of vortices, wherein the vortex shedding edge is located between 25% of the suction surface length upstream of the geometric throat and 50% of the suction surface length downstream of the geometric throat, characterized in that the step shaped section comprises at least one depression having an upstream inner edge, a downstream inner edge, an upstream outer edge and a downstream outer edge which form the steps of the step shaped section, wherein the steps drop away into the depression and wherein the downstream outer edge of each depression forms a vortex shedding edge.
Exhaust system for an internal combustion engine, especially an internal combustion engine of a vehicle, comprising an exhaust gas duct carrying an exhaust gas stream and a reactant release arrangement for releasing a reactant stream into the exhaust gas stream, wherein the reactant release arrangement comprises a reactant release unit further comprising a bypass flow generation arrangement for generating a bypass flow surrounding the reactant stream released from the reactant release arrangement, wherein said bypass flow generation arrangement comprises a bypass flow release unit surrounding the reactant release unit in a ring-shaped manner, wherein said bypass flow release unit comprises a bypass flow release body and, upstream of the bypass flow release body, a bypass flow release chamber leading to the bypass flow release body, characterized in that the bypass flow release body has a porous configuration.
A method for cleaving a modified target DNA, the method comprising: converting 5caC and/or 5fC in a target DNA to dihydrouracil to provide a modified target DNA comprising one or more DHU; and contacting the modified target DNA comprising one or more DHU with one or more endonucleases that cleave the modified target DNA at, or adjacent to, the one or more DHU. converting 5caC and/or 5fC in a target DNA to dihydrouracil to provide a modified target DNA comprising one or more DHU; and contacting the modified target DNA comprising one or more DHU with one or more endonucleases that cleave the modified target DNA at, or adjacent to, the one or more DHU.
A centrifugal compressor for compressing a wet gas mixture, comprising: at least one stage suited to separate a liquid phase and a gas phase with the aid of at least one of a hydrophobic or super-hydrophobic surface layer, and at least one of a hydrophilic or super-hydrophilic surface layer, wherein the hydrophobic and/or super-hydrophobic surface layer is disposed on at least one of an inlet guide vane, impeller, return channel straight hub, or exiting hub bend; and the hydrophilic and/or super-hydrophilic surface is disposed on at least one of the impeller casing, diffuser casing, exiting casing bend, return channel straight hub, exiting hub bend, collection point (100, 102), or drain (92,94). at least one stage suited to separate a liquid phase and a gas phase with the aid of at least one of a hydrophobic or super-hydrophobic surface layer, and at least one of a hydrophilic or super-hydrophilic surface layer, wherein the hydrophobic and/or super-hydrophobic surface layer is disposed on at least one of an inlet guide vane, impeller, return channel straight hub, or exiting hub bend; and the hydrophilic and/or super-hydrophilic surface is disposed on at least one of the impeller casing, diffuser casing, exiting casing bend, return channel straight hub, exiting hub bend, collection point (100, 102), or drain (92,94).
A hydrogen generator comprising: a hydrogen generating unit configured to generate a hydrogen-containing gas by using a raw material gas; a hydro-desulfurizer configured to remove a sulfur compound in the raw material gas supplied to the hydrogen generating unit; a first gas channel through which the raw material gas supplied through the hydro-desulfurizer to the hydrogen generating unit flows; a recycle channel through which the hydrogen-containing gas from the hydrogen generating unit is supplied to the raw material gas in the first gas channel located upstream of the hydro-desulfurizer; a raw material gas supply unit disposed between the hydro-desulfurizer and a meeting point where the first gas channel and the recycle channel meet; a first on-off valve disposed between the raw material gas supply unit and the hydro-desulfurizer, the first on-off valve performing only switching between open and close; and a controller configured to close the first on-off valve when the hydrogen generator stops a hydrogen generating operation. a hydrogen generating unit configured to generate a hydrogen-containing gas by using a raw material gas; a hydro-desulfurizer configured to remove a sulfur compound in the raw material gas supplied to the hydrogen generating unit; a first gas channel through which the raw material gas supplied through the hydro-desulfurizer to the hydrogen generating unit flows; a recycle channel through which the hydrogen-containing gas from the hydrogen generating unit is supplied to the raw material gas in the first gas channel located upstream of the hydro-desulfurizer; a raw material gas supply unit disposed between the hydro-desulfurizer and a meeting point where the first gas channel and the recycle channel meet; a first on-off valve disposed between the raw material gas supply unit and the hydro-desulfurizer, the first on-off valve performing only switching between open and close; and a controller configured to close the first on-off valve when the hydrogen generator stops a hydrogen generating operation.