mhurhangee/ep-ind-claims huggingface dataset:
A method for drying silage, characterized by the following steps: - introducing silage into a condensation container, - conveying the silage from the condensation container into a mash container, - conveying the mash from the mash container into a dewatering device (11, 12), - dewatering the mash in the dewatering device (11, 12), - conveying the dewatered mash into a dryer, and - drying the dewatered mash, the dryer exhaust air, for the purpose of reducing the emission of odours into the environment on account of the condensation of substances entrained in the exhaust air, being guided into the condensation container while bringing it into contact with freshly fed silage. - introducing silage into a condensation container, - conveying the silage from the condensation container into a mash container, - conveying the mash from the mash container into a dewatering device (11, 12), - dewatering the mash in the dewatering device (11, 12), - conveying the dewatered mash into a dryer, and - drying the dewatered mash,
Escutcheon for door and/or window handles having a basic body which has a centrally disposed recess and for the reception of fastening screws at least two through holes, wherein the basic body has a top side and a bottom side, and having a cover element, which is rotatably disposed on the top side of the basic body and in a first rotational position relative to the basic body covers it and in a second rotational position relative to the basic body exposes the through holes, wherein on the bottom side of the basic body is disposed a cover bottom part, wherein the cover element and the cover bottom part in the first rotational position of the cover element enclose the basic body, characterised in that the cover element has a border which covers laterally the basic body, which border is interrupted in regions (43, 44) opposite to one another.
A method for calibrating zero rate offset of a first inertial sensor located on a device, the method comprising: determining a stability level of the device based on information associated with at least one non-inertial sensor located on the device; and performing a calibration of the ZRO of the first inertial sensor when the stability level is above a threshold, characterized in that the method further comprises: estimating a quality of a current ZRO value for the first inertial sensor, based on a calibration quality of a last ZRO calibration; determining a level of necessity of performing ZRO calibration based on the estimation of the quality of the current ZRO value for the first inertial sensor; and controlling the motion of the device as a function of the level of necessity of performing ZRO calibration. determining a stability level of the device based on information associated with at least one non-inertial sensor located on the device; and performing a calibration of the ZRO of the first inertial sensor when the stability level is above a threshold, estimating a quality of a current ZRO value for the first inertial sensor, based on a calibration quality of a last ZRO calibration; determining a level of necessity of performing ZRO calibration based on the estimation of the quality of the current ZRO value for the first inertial sensor; and controlling the motion of the device as a function of the level of necessity of performing ZRO calibration.
Light emitting device, comprising - a board comprising a board top surface, - a plurality of LED units arranged on said board top surface at a distance from each other, - a flat light guide arranged to cover said LED units and said board top surface, - said light guide comprising a light guide bottom surface, wherein a plurality of cavities are formed within said light guide bottom surface, and wherein said LED units are arranged to project into said cavities, - and a plurality of spacer elements being arranged in between said board top surface and said light guide bottom surface, such that said board top surface and said light guide bottom surface are kept at a distance (d), characterized in that, - said spacer elements are arranged fixed to said board top surface and to said light guide bottom surface, and - said spacer elements are distributed over said board top surface with a density increasing with increasing distance from said LED units. - a board comprising a board top surface, - a plurality of LED units arranged on said board top surface at a distance from each other, - a flat light guide arranged to cover said LED units and said board top surface, - said light guide comprising a light guide bottom surface, wherein a plurality of cavities are formed within said light guide bottom surface, and wherein said LED units are arranged to project into said cavities, - and a plurality of spacer elements being arranged in between said board top surface and said light guide bottom surface, such that said board top surface and said light guide bottom surface are kept at a distance (d), - said spacer elements are arranged fixed to said board top surface and to said light guide bottom surface, and - said spacer elements are distributed over said board top surface with a density increasing with increasing distance from said LED units.
A mutant isocitrate dehydrogenase 1 inhibitor and a DNA demethylating agent for use in a method of treating a hematological malignancy, comprising administering to a subject the mutant isocitrate dehydrogenase 1 inhibitor and the DNA demethylating agent, wherein the mutant IDH1 inhibitor is -N-( -1-(2-chlorophenyl)-2-((3,3-difluorocyclobutyl)amino)-2-oxoethyl)-1-(4-cyanopyridin-2-yl)-N-(5-fluoropyridin-3-yl)-5-oxopyrrolidine-2-carboxamide, (COMPOUND 2) having the following formula: or a pharmaceutically acceptable salt, solvate, tautomer, stereoisomer, isotopologue, or a polymorph thereof, and wherein the hematological malignancy is a malignancy characterized by the presence of a mutant allele of IDH1.
A light-emitting device holder configured to fix a light-emitting device to a mounting object, the light-emitting device including a substrate, a light-emitting element mounted to a surface of the substrate, and a pad provided on the surface of the substrate and connected to the light-emitting element, the light-emitting device holder comprising: a holder main body defining an opening at a position corresponding to the light-emitting element in a fixed state after the light-emitting device is fixed to the mounting object by the light-emitting device holder; a terminal attached to the holder main body, the terminal being configured to be in contact with the pad in the fixed state; and an insulating member (13,23,43) attached to the holder main body, the insulating member (13,23,43) being configured to be in contact with at least a region of the surface of the substrate between the pad and a portion of an edge of the substrate that is closest to the pad in the fixed state wherein the substrate has a rectangular plate shape, wherein the pad is disposed at a corner portion of the substrate, and wherein the insulating member (13,23,43) is configured to be in contact with the region of the surface of the substrate between the pad and two edges defining the corner portion. a holder main body defining an opening at a position corresponding to the light-emitting element in a fixed state after the light-emitting device is fixed to the mounting object by the light-emitting device holder; a terminal attached to the holder main body, the terminal being configured to be in contact with the pad in the fixed state; and an insulating member (13,23,43) attached to the holder main body, the insulating member (13,23,43) being configured to be in contact with at least a region of the surface of the substrate between the pad and a portion of an edge of the substrate that is closest to the pad in the fixed state wherein the substrate has a rectangular plate shape, wherein the pad is disposed at a corner portion of the substrate, and wherein the insulating member (13,23,43) is configured to be in contact with the region of the surface of the substrate between the pad and two edges defining the corner portion.
Filtering device for natural control of processionary caterpillars, comprising: a. A container, for containing and protecting a nest of the processionary caterpillar and their natural enemies, wherein the container is provided with: i. An entry opening, for placing the nest into the container, wherein the entry opening is provided on the top of the container; ii. A closing element, for at least partially closing the entry opening, wherein the closing element is the roof of the container; and iii. At least one exit opening, allowing insects to exit the container, formed by a perforated plate; b. Wherein the exit opening is dimensioned such that natural enemies of the processionary caterpillar, such as the tachinid fly or ichneumon wasp, can exit the container and such that at least some of the butterflies of the processionary caterpillar cannot exit the container; and c. Wherein the exit openings have a dimension, diameter or width between 3 and 6 mm, in particular between 4 and 6 mm d. Characterized in that the closing element is connected to a number of mainly horizontally extending plateaus via a central substantially vertical rod. a. A container, for containing and protecting a nest of the processionary caterpillar and their natural enemies, wherein the container is provided with: i. An entry opening, for placing the nest into the container, wherein the entry opening is provided on the top of the container; ii. A closing element, for at least partially closing the entry opening, wherein the closing element is the roof of the container; and iii. At least one exit opening, allowing insects to exit the container, formed by a perforated plate; i. An entry opening, for placing the nest into the container, wherein the entry opening is provided on the top of the container; ii. A closing element, for at least partially closing the entry opening, wherein the closing element is the roof of the container; and iii. At least one exit opening, allowing insects to exit the container, formed by a perforated plate; b. Wherein the exit opening is dimensioned such that natural enemies of the processionary caterpillar, such as the tachinid fly or ichneumon wasp, can exit the container and such that at least some of the butterflies of the processionary caterpillar cannot exit the container; and c. Wherein the exit openings have a dimension, diameter or width between 3 and 6 mm, in particular between 4 and 6 mm d. Characterized in that the closing element is connected to a number of mainly horizontally extending plateaus via a central substantially vertical rod.
An optical fiber fusion splicing method for performing fusion splicing through positioning of optical fibers to be spliced in a V-groove (16a, 17a), the optical fiber fusion splicing method comprising: pressing the optical fibers placed in the V-groove (16a, 17a) relatively toward the V-groove (16a, 17a) using a clamp (21, 22); varying a clamp pressure of the clamp (21, 22) pressing the optical fibers; and moving the optical fibers placed in the V-groove (16a, 17a) with respect to the V-groove (16a, 17a) in an axial direction; characterized in that the varying the clamp pressure and the moving the optical fibers in the axial direction are performed simultaneously. pressing the optical fibers placed in the V-groove (16a, 17a) relatively toward the V-groove (16a, 17a) using a clamp (21, 22); varying a clamp pressure of the clamp (21, 22) pressing the optical fibers; and moving the optical fibers placed in the V-groove (16a, 17a) with respect to the V-groove (16a, 17a) in an axial direction; characterized in that the varying the clamp pressure and the moving the optical fibers in the axial direction are performed simultaneously.
A process for making a dense article comprising: densifying a TFE copolymer film comprising a core shell TFE copolymer to form a dense article, said TFE copolymer film having a first endotherm between 50 and 300°C, a second endotherm between 320°C and 350°C, and a third endotherm between 350°C and 400°C, wherein the endotherms are measured as specified in the description, wherein said densifying is by compression at a temperature above 300°C and up to 400°C, the core shell TFE copolymer has a shell portion that is made from only TFE monomers or TFE monomers and a trace amount of comonomer and a core portion that includes TFE copolymer, and said dense article has a void volume, measured as specified in the description, of less than 20%.
A method of manufacturing an outer joint member of a constant velocity universal joint, the outer joint member comprising: a cup section having track grooves formed in an inner periphery of the cup section, which are engageable with torque transmitting elements; and a shaft section formed at a bottom portion of the cup section, the outer joint member being constructed by forming the cup section and the shaft section as separate members, and by welding a cup member forming the cup section and a shaft member forming the shaft section to each other, the manufacturing method at least comprising: a welding step of welding the cup member and the shaft member to form a workpiece by irradiating a beam to joining end portions of the cup member and the shaft member; characterized in that the manufacturing method further comprises: an ultrasonic flaw detection-inspection step (S6k) of inspecting a welded portion formed in the welding step by a plurality of ultrasonic flaw detection methods with one shared probe, wherein a position and an angle of the probe are freely controlled, and the plurality of ultrasonic flaw detection methods comprise a circumferential angle beam flaw detection method and an axial angle beam flaw detection method. the outer joint member comprising: a cup section having track grooves formed in an inner periphery of the cup section, which are engageable with torque transmitting elements; and a shaft section formed at a bottom portion of the cup section, a cup section having track grooves formed in an inner periphery of the cup section, which are engageable with torque transmitting elements; and a shaft section formed at a bottom portion of the cup section, the outer joint member being constructed by forming the cup section and the shaft section as separate members, and by welding a cup member forming the cup section and a shaft member forming the shaft section to each other, the manufacturing method at least comprising: a welding step of welding the cup member and the shaft member to form a workpiece by irradiating a beam to joining end portions of the cup member and the shaft member; characterized in that the manufacturing method further comprises: an ultrasonic flaw detection-inspection step (S6k) of inspecting a welded portion formed in the welding step by a plurality of ultrasonic flaw detection methods with one shared probe, wherein a position and an angle of the probe are freely controlled, and the plurality of ultrasonic flaw detection methods comprise a circumferential angle beam flaw detection method and an axial angle beam flaw detection method. a position and an angle of the probe are freely controlled, and the plurality of ultrasonic flaw detection methods comprise a circumferential angle beam flaw detection method and an axial angle beam flaw detection method.
A method of measuring three-dimensional geometry of an attachment mounted to a work frame of an orthogonal three-axis robot having operation shafts extending in an X direction, a Y direction, and a Z direction, wherein the method comprises: measuring a maximum dimension of the attachment in the X direction, a maximum dimension of the attachment in the Y direction, and a maximum dimension of the attachment in the Z direction on the basis of images of the attachment captured by at least one imaging device (C1 to C8) before the attachment starts work with the attachment being mounted to the work frame of the orthogonal three-axis robot.
Semiconductor wafer inspection device comprising a wafer transport arm provided with at least one wafer support element, characterized by the fact that it comprises a wafer gripper, the gripper comprising two spaced-apart branches (18, 19) configured to hold the opposite edges of the wafer, the gripper being mounted so as to rotate on a shaft in order to be able to rotate the wafer between a substantially horizontal position and a substantially vertical position, and at least two inspection systems arranged on one side of the wafer and on the other in a substantially vertical position, symmetrically with respect to the plane passing through the wafer, each of the inspection systems comprising at least one light source and at least one camera (13, 14), each light source comprising a screen (9, 10) substantially parallel to the plane of the wafer and positioned in order to emit an incident beam towards one of the surfaces of the wafer, each camera (13, 14) being positioned in order to capture the light reflected by the surface of the wafer facing it, the inspection systems being actuated when the wafer is immobile in a substantially vertical position.
A working method of a modular uninterruptible power supply, UPS, wherein the method comprises: obtaining (31, 41) working parameters of the modular UPS, wherein the working parameters comprise an input voltage parameter, a load parameter, and a battery parameter; and adjusting a working mode of a power module in the modular UPS according to at least one of the working parameters of the modular UPS, characterised in the method further comprising: adjusting of the working mode of the power module in the modular UPS according to the at least one of the working parameters of the modular UPS, so that not all power modules are in a same working mode, wherein the modular UPS comprises K working modules, and 2 ≤ K; wherein the adjusting a working mode of a power module in the modular UPS according to at least one of the working parameters of the modular UPS comprises: determining whether the input voltage parameter meets a preset threshold, wherein the input voltage parameter comprises a voltage amplitude and a voltage frequency; and when it is determined that at least one of the input voltage amplitude or the input voltage frequency does not meet the preset threshold, adjusting working modes of L power modules of the K power modules in the modular UPS to a battery power supply mode, wherein K is a total quantity of the power modules in the modular UPS, and 1 ≤ L < K. obtaining (31, 41) working parameters of the modular UPS, wherein the working parameters comprise an input voltage parameter, a load parameter, and a battery parameter; and adjusting a working mode of a power module in the modular UPS according to at least one of the working parameters of the modular UPS, characterised in the method further comprising: adjusting of the working mode of the power module in the modular UPS according to the at least one of the working parameters of the modular UPS, so that not all power modules are in a same working mode, wherein the modular UPS comprises K working modules, and 2 ≤ K; wherein the adjusting a working mode of a power module in the modular UPS according to at least one of the working parameters of the modular UPS comprises: determining whether the input voltage parameter meets a preset threshold, wherein the input voltage parameter comprises a voltage amplitude and a voltage frequency; and when it is determined that at least one of the input voltage amplitude or the input voltage frequency does not meet the preset threshold, adjusting working modes of L power modules of the K power modules in the modular UPS to a battery power supply mode, wherein K is a total quantity of the power modules in the modular UPS, and 1 ≤ L < K. determining whether the input voltage parameter meets a preset threshold, wherein the input voltage parameter comprises a voltage amplitude and a voltage frequency; and when it is determined that at least one of the input voltage amplitude or the input voltage frequency does not meet the preset threshold, adjusting working modes of L power modules of the K power modules in the modular UPS to a battery power supply mode, wherein K is a total quantity of the power modules in the modular UPS, and 1 ≤ L < K.
Stock for a shoulder-fired weapon, comprising: - an articulated trapezoidal or parallelogram-shaped structure, including: • two blocks (3, 4) respectively forming a support interface with the body of the weapon and a support for a butt plate, and • at least two rigid connecting arms (5, 6; 5, 6.1, 6.2) each articulated, at one of its ends, by a pivot connection (50, 60) with the support interface with the body of the weapon and at the other of its ends by a pivot connection (51, 61) with the support of the butt plate, at least one of the rigid connecting arms (5, 6.1, 6.2) including curvatures towards the interior of the structure, so as to partially overlap one another; - at least one means (64, 52; 62, 52, 7; 62, 52, 8) for locking the arms together, in at least one fixed position defining a desired height of the butt plate relative to the support interface. - an articulated trapezoidal or parallelogram-shaped structure, including: • two blocks (3, 4) respectively forming a support interface with the body of the weapon and a support for a butt plate, and • at least two rigid connecting arms (5, 6; 5, 6.1, 6.2) each articulated, at one of its ends, by a pivot connection (50, 60) with the support interface with the body of the weapon and at the other of its ends by a pivot connection (51, 61) with the support of the butt plate, at least one of the rigid connecting arms (5, 6.1, 6.2) including curvatures towards the interior of the structure, so as to partially overlap one another; • two blocks (3, 4) respectively forming a support interface with the body of the weapon and a support for a butt plate, and • at least two rigid connecting arms (5, 6; 5, 6.1, 6.2) each articulated, at one of its ends, by a pivot connection (50, 60) with the support interface with the body of the weapon and at the other of its ends by a pivot connection (51, 61) with the support of the butt plate, at least one of the rigid connecting arms (5, 6.1, 6.2) including curvatures towards the interior of the structure, so as to partially overlap one another; - at least one means (64, 52; 62, 52, 7; 62, 52, 8) for locking the arms together, in at least one fixed position defining a desired height of the butt plate relative to the support interface.