mhurhangee/ep-ind-claims huggingface dataset:
A process for forming a plurality of apertures in a fiber-reinforced composite object using a laser, wherein the apertures include at least a first aperture and a second aperture, the process comprising: operating a scanner head of the laser from a location to selectively scan a laser beam over the object to form a first portion of the first aperture and to form a first portion of the second aperture; and operating the scanner head from the location to selectively scan the laser beam over the object to form a second portion of the first aperture and to form a second portion of the second aperture, characterized in that the laser comprises an infrared fiber laser and that the first portion of the first aperture comprises a layer cut into the object, and the second portion of the first aperture is an annular cut into the object. operating a scanner head of the laser from a location to selectively scan a laser beam over the object to form a first portion of the first aperture and to form a first portion of the second aperture; and operating the scanner head from the location to selectively scan the laser beam over the object to form a second portion of the first aperture and to form a second portion of the second aperture, characterized in that the laser comprises an infrared fiber laser and that the first portion of the first aperture comprises a layer cut into the object, and the second portion of the first aperture is an annular cut into the object.
A light guide plate, comprising: a glass sheet having between 0 mol% to 15 mol% Al 2 O 3, 50 mol % to 90 mol% SiO 2, 0 mol% to 12 mol% B 2 O 3, and 0 mol% to 25 mol% R x O, wherein R is any one or more of Li, Na, K, Rb, Cs and x is 2, or Zn, Mg, Ca, Sr or Ba and x is 1, and wherein Fe is < 50 ppm. a glass sheet having between 0 mol% to 15 mol% Al 2 O 3, 50 mol % to 90 mol% SiO 2, 0 mol% to 12 mol% B 2 O 3, and 0 mol% to 25 mol% R x O, 50 mol % to 90 mol% SiO 2, 0 mol% to 12 mol% B 2 O 3, and 0 mol% to 25 mol% R x O, wherein R is any one or more of Li, Na, K, Rb, Cs and x is 2, or Zn, Mg, Ca, Sr or Ba and x is 1, and wherein Fe is < 50 ppm.
A light alloy steel with a high yield strength and excellent sulphide stress cracking behaviour, characterized in that it contains, by weight: C: 0.3% to 0.5%; Si: 0.1% to 1%; Mn: 1% or less; P: 0.03% or less; S: 0.005% or less; Cr: 0.3% to 1%; Mo: 1% to 2%; W: 0.3% to 1%; V: 0.03% to 0.25%; Nb: 0.01 % to 0.15%; Al: 0.01% to 0.1%; the remainder of the chemical composition of said steel being constituted by Fe and impurities or residuals resulting from or necessary to steel production and casting processes. C: 0.3% to 0.5%; Si: 0.1% to 1%; Mn: 1% or less; P: 0.03% or less; S: 0.005% or less; Cr: 0.3% to 1%; Mo: 1% to 2%; W: 0.3% to 1%; V: 0.03% to 0.25%; Nb: 0.01 % to 0.15%; Al: 0.01% to 0.1%;
A computer-implemented method of aligning a ground based image with aerial imagery, the method comprising: obtaining, by one or more computing devices, a ground based image of a geographic area captured from a perspective at ground level; identifying, by the one or more computing devices, candidate aerial imagery of the geographic area, wherein a pose of the ground based image is used to select candidate aerial imagery associated with a view direction aligned with the view direction of the ground based image; transforming, by the one or more computing devices, the ground based image to a warped image having a projection associated with the candidate aerial imagery based at least in part on geometric data associated with the ground based image, wherein the warped image has an image plane associated with a view perspective aligned with the candidate aerial imagery; identifying, by the one or more computing devices, one or more feature matches between the warped image and the candidate aerial imagery; and aligning, by the one or more computing devices, the ground based image with the candidate aerial imagery based at least in part on the one or more feature matches. obtaining, by one or more computing devices, a ground based image of a geographic area captured from a perspective at ground level; identifying, by the one or more computing devices, candidate aerial imagery of the geographic area, wherein a pose of the ground based image is used to select candidate aerial imagery associated with a view direction aligned with the view direction of the ground based image; transforming, by the one or more computing devices, the ground based image to a warped image having a projection associated with the candidate aerial imagery based at least in part on geometric data associated with the ground based image, wherein the warped image has an image plane associated with a view perspective aligned with the candidate aerial imagery; identifying, by the one or more computing devices, one or more feature matches between the warped image and the candidate aerial imagery; and aligning, by the one or more computing devices, the ground based image with the candidate aerial imagery based at least in part on the one or more feature matches.
Computer-implemented method comprising the steps of: - receiving a first representation (F̃1) of an examination region of an examination object, the first representation (F̃1) representing the examination region without contrast agent or after administration of a first amount of contrast agent, - receiving a second representation (F̃2) of the examination region of the examination object, the second representation (F̃2) representing the examination region after an administration of a second amount of contrast agent, - feeding at least part of the first representation (F̃1) and at least part of the second representation (F̃2) to a machine learning model, - receiving from the machine learning model a third representation (F̃3*) of the examination region, the third representation (F̃3*) representing the examination region after administration of a third amount of contrast agent, - outputting and/or storing a representation (Õ3*) of the examination region in a real-space depiction, characterized in that the first representation (F̃1), the second representation (F̃2) and the third representation (F̃3*) represent the examination region of the examination object in frequency space, the method further comprising: - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*). - receiving a first representation (F̃1) of an examination region of an examination object, the first representation (F̃1) representing the examination region without contrast agent or after administration of a first amount of contrast agent, - receiving a second representation (F̃2) of the examination region of the examination object, the second representation (F̃2) representing the examination region after an administration of a second amount of contrast agent, - feeding at least part of the first representation (F̃1) and at least part of the second representation (F̃2) to a machine learning model, - receiving from the machine learning model a third representation (F̃3*) of the examination region, the third representation (F̃3*) representing the examination region after administration of a third amount of contrast agent, - outputting and/or storing a representation (Õ3*) of the examination region in a real-space depiction, characterized in that the first representation (F̃1), the second representation (F̃2) and the third representation (F̃3*) represent the examination region of the examination object in frequency space, the method further comprising: - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*). - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*).
A ducting arrangement in a computing device wherein the ducting arrangement comprises a plurality of first heat generating components (40, 42) and a plurality of second heat generating components (14, 16) wherein the first heat generating components (40, 42) and the second heat generating components (14, 16) are in a shadow arrangement with respect to the incoming air, wherein the first heat generating components (40, 42) are positioned in the computing device adjacent to the second heat generating components (14, 16), characterized in that the ducting arrangement comprises: one or more first ducts wherein each of the first ducts is used for directing a portion of the incoming air through a rear one of the first heat generating components (40, 42) and a front one of the second heat generating components (14, 16); and one or more second ducts wherein each of the second ducts is used for directing another portion of the incoming air through a rear one of the second heat generating components (14, 16) and bypassing the first heat generating components (40, 42) and the front one of the second heat generating components (14, 16). one or more first ducts wherein each of the first ducts is used for directing a portion of the incoming air through a rear one of the first heat generating components (40, 42) and a front one of the second heat generating components (14, 16); and one or more second ducts wherein each of the second ducts is used for directing another portion of the incoming air through a rear one of the second heat generating components (14, 16) and bypassing the first heat generating components (40, 42) and the front one of the second heat generating components (14, 16).
An RF circuit (HF-S) comprising: - a diplexer having a first port, a common port and a second port, - a first duplexer (DU-HB-1) for a first frequency band having a transmit port, a common port and a receive port, - a first duplexer (DU-LB-1) for a second frequency band having a transmit port, a common port and a receive port, wherein the first frequency band is the 2 GHz band or the 2.5 GHz band and the second frequency band is the 1 GHz band, - a first signal path between the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the first frequency band and the first port of the diplexer, wherein the first signal path connects the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the first frequency band to the first port of the diplexer, - a second signal path between the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the second frequency band and the second port of the diplexer, - in the second signal path a phase shifter, configured to adapt the impedances of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the second frequency band and of the diplexer for at least one harmonic of a transmission frequency of one of the frequency bands, so that at least one intermodulation product is reduced, wherein the phase shifter is tunable in its phase offset. - a diplexer having a first port, a common port and a second port, - a first duplexer (DU-HB-1) for a first frequency band having a transmit port, a common port and a receive port, - a first duplexer (DU-LB-1) for a second frequency band having a transmit port, a common port and a receive port, wherein the first frequency band is the 2 GHz band or the 2.5 GHz band and the second frequency band is the 1 GHz band, - a first signal path between the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the first frequency band and the first port of the diplexer, wherein the first signal path connects the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the first frequency band to the first port of the diplexer, - a second signal path between the common port of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the second frequency band and the second port of the diplexer, - in the second signal path a phase shifter, configured to adapt the impedances of the first duplexer (DU-HB-1, DU-LB-1, DU-HB-2, DU-LB-2, DU-HB-3, DU-LB-3) of the second frequency band and of the diplexer for at least one harmonic of a transmission frequency of one of the frequency bands, so that at least one intermodulation product is reduced, wherein the phase shifter is tunable in its phase offset.
Conversion component, for arrangement downstream at a radiation coupling-out surface of a radiation-emitting semiconductor chip, having - a converter element, comprising a first main surface, a second main surface opposite the first main surface and at least one side surface, wherein the side surface connects the two main surfaces (11, 12) to one another, and the converter element contains at least one luminescence conversion material, which is suitable for absorbing electromagnetic radiation of a wavelength range and re-emitting the absorbed electromagnetic radiation in another wavelength range with larger wavelengths than the absorbed radiation; - a reflective coating, which is formed to reflect electromagnetic radiation exiting from the converter element and to reflect it at least partially back into the converter element, wherein - the reflective coating covers the converter element at least in places at the at least one side surface, and - the two main surfaces (11, 12) of the converter element are free of the reflective coating at least in places - wherein the conversion component is formed in a self-supporting manner, characterized in that a radiation-absorbing coating is applied at least in places to at least one outer surface of the reflective coating remote from the converter element. - a converter element, comprising a first main surface, a second main surface opposite the first main surface and at least one side surface, wherein the side surface connects the two main surfaces (11, 12) to one another, and the converter element contains at least one luminescence conversion material, which is suitable for absorbing electromagnetic radiation of a wavelength range and re-emitting the absorbed electromagnetic radiation in another wavelength range with larger wavelengths than the absorbed radiation; - a reflective coating, which is formed to reflect electromagnetic radiation exiting from the converter element and to reflect it at least partially back into the converter element, wherein - the reflective coating covers the converter element at least in places at the at least one side surface, and - the two main surfaces (11, 12) of the converter element are free of the reflective coating at least in places - wherein the conversion component is formed in a self-supporting manner, characterized in that a radiation-absorbing coating is applied at least in places to at least one outer surface of the reflective coating remote from the converter element.
An automatic analysis device comprising: a measurement processing unit which measures a concentration of a biological component contained in a specimen; an operation unit which controls the measurement processing unit; a data base which stores consideration information about the specimen; a smart device which includes an image capturing unit for capturing an image of a holder on which a specimen container that accommodates the specimen therein is installed; and a calculation unit which specifies a specimen container that accommodates a specimen having the consideration information taken in an image captured by the image capturing unit of the smart device based on the consideration information stored in the data base, and displays marks on a displayed image of the specified specimen container, characterized in that the calculation unit determines whether or not the displayed mark is a mark to be given and deletes the display of the mark in a case where it is determined that the mark is not a mark to be given as a result of the determination. a measurement processing unit which measures a concentration of a biological component contained in a specimen; an operation unit which controls the measurement processing unit; a data base which stores consideration information about the specimen; a smart device which includes an image capturing unit for capturing an image of a holder on which a specimen container that accommodates the specimen therein is installed; and a calculation unit which specifies a specimen container that accommodates a specimen having the consideration information taken in an image captured by the image capturing unit of the smart device based on the consideration information stored in the data base, and displays marks on a displayed image of the specified specimen container, characterized in that the calculation unit determines whether or not the displayed mark is a mark to be given and deletes the display of the mark in a case where it is determined that the mark is not a mark to be given as a result of the determination.
A detection device including an ionization region, an ion gate comprising two electrodes, an ion modifier comprising two electrodes, a drift chamber and a collector, characterised in that the ion gate and ion modifier are combined so the ion gate is one of the ion modifier electrodes.
An automated analyzer that includes an axial probe configured to move between below the liquid surface of any liquid among a sample, reagent, and cleaning water and above said liquid surface, dispense said sample and said reagent into a reaction container, and be cleaned with said cleaning water, and that analyzes components of a reaction solution generated from said dispensed sample and reagent, wherein: said probe includes a step part configured to be provided between a lower shaft and an upper shaft, and to be formed such that the outer diameter changes; said automated analyzer includes: a detector configured to detect the position of the step part with respect to the position of the liquid surface of said liquid, and a descending controller configured to lower said probe and an ascending controller configured to raise said probe; said descending controller configured to lower said probe from a predefined position that positions said step part above the position of the liquid surface of said liquid to an operating position for performing absorption of said liquid or washing with said cleaning water by positioning said step part below the position of said liquid surface; and said ascending controller configured to raise said probe at a first speed and a second speed wherein said second speed is lower than said first speed, and wherein said ascending controller raises the probe at the second speed as the step part passes through the position of said liquid surface. said probe includes a step part configured to be provided between a lower shaft and an upper shaft, and to be formed such that the outer diameter changes; said automated analyzer includes: a detector configured to detect the position of the step part with respect to the position of the liquid surface of said liquid, and a descending controller configured to lower said probe and an ascending controller configured to raise said probe; a detector configured to detect the position of the step part with respect to the position of the liquid surface of said liquid, and a descending controller configured to lower said probe and an ascending controller configured to raise said probe; said descending controller configured to lower said probe from a predefined position that positions said step part above the position of the liquid surface of said liquid to an operating position for performing absorption of said liquid or washing with said cleaning water by positioning said step part below the position of said liquid surface; and said ascending controller configured to raise said probe at a first speed and a second speed wherein said second speed is lower than said first speed, and wherein said ascending controller raises the probe at the second speed as the step part passes through the position of said liquid surface.
A method for depositing a metal coating in vapour phase onto parts (35, 45) made of heat resistant alloy, comprising: - arranging at least one box forming an enclosure, the box comprising a bottom, - arranging in the enclosure of grains of a donor of said coating metal and an activator capable of together forming a halide of the coating metal, - arranging parts in the enclosure, and - heating the enclosure under an inert gas or reducing gas atmosphere to a temperature at which the halide of the coating metal reacts with the alloy of the parts, and the gas being injected into the box, when the box is closed, via the side above the bed of grains, characterised in that the method comprises arranging on the bottom of the enclosure a bed of grains of the donor of said coating metal and the activator capable of together forming the halide of the coating metal and placing a support for supporting the parts (35, 45) on the bed of grains, this support comprising a plate (31, 41) from which the parts (35, 45) are suspended and columns (32, 42) for supporting said plate, the parts being kept separate from and free of any contact with the bed of grains. - arranging at least one box forming an enclosure, the box comprising a bottom, - arranging in the enclosure of grains of a donor of said coating metal and an activator capable of together forming a halide of the coating metal, - arranging parts in the enclosure, and - heating the enclosure under an inert gas or reducing gas atmosphere to a temperature at which the halide of the coating metal reacts with the alloy of the parts, and the gas being injected into the box, when the box is closed, via the side above the bed of grains,
A sensor circuit comprising - a sensor adapted to sense a physical quantity and to produce a sensor output signal, - a sensor-offset correction block arranged to receive a signal indicative of a supply voltage (Vsup) applied to said sensor circuit and to receive a supply current or a quantity indicative of said supply current of said sensor circuit and to generate a compensation signal to compensate for temperature gradient offset, said compensation signal based on said signal indicative of said supply voltage and on said supply current or said quantity indicative of said supply current of said sensor circuit, - a combiner adapted to combine said sensor output signal with said compensation signal, thereby obtaining a compensated signal. - a sensor adapted to sense a physical quantity and to produce a sensor output signal, - a sensor-offset correction block arranged to receive a signal indicative of a supply voltage (Vsup) applied to said sensor circuit and to receive a supply current or a quantity indicative of said supply current of said sensor circuit and to generate a compensation signal to compensate for temperature gradient offset, said compensation signal based on said signal indicative of said supply voltage and on said supply current or said quantity indicative of said supply current of said sensor circuit, - a combiner adapted to combine said sensor output signal with said compensation signal, thereby obtaining a compensated signal.
A process for manufacturing a pelleted feed composition comprising the steps of: a) mixing feed components comprising starch with an alpha-amylase, b) steam treating the mixture (a) to a water content below 20 % by weight, and c) pressing the steam treated mixture (b) to form pellets, at conditions so as to reduce energy consumption in step (c) compared to a process without the alpha-amylase. a) mixing feed components comprising starch with an alpha-amylase, b) steam treating the mixture (a) to a water content below 20 % by weight, and c) pressing the steam treated mixture (b) to form pellets,