mhurhangee/ep-ind-claims huggingface dataset:
An instrument for delivering a transfascial suture, the instrument comprising: a handle; an elongated shaft extending from the handle and including a distal end; a needle moveable to at least one extended position beyond the distal end of the shaft, the needle having a sharp end adapted to pierce a soft tissue repair prosthetic and abdominal wall tissue; a probe located within the needle that is extendable beyond the sharp end of the needle; and a drive mechanism (404, 436) adapted to advance the needle and/or the probe to an extended position. a handle; an elongated shaft extending from the handle and including a distal end; a needle moveable to at least one extended position beyond the distal end of the shaft, the needle having a sharp end adapted to pierce a soft tissue repair prosthetic and abdominal wall tissue; a probe located within the needle that is extendable beyond the sharp end of the needle; and a drive mechanism (404, 436) adapted to advance the needle and/or the probe to an extended position.
A sample liquid-surface position measurement device, comprising: a first light source that illuminates a side face of a container containing a sample; a first optical measurement sensor that is located on the opposite side of the container from the first light source, and measures transmitted light from the first light source; a first label position measuring unit that measures a position of a label affixed to the container; characterized in that the device further comprises: an analysis section that calculates a liquid-surface position or an interface position of the sample in the container, from transmitted-light intensity data in a longitudinal direction of the container which is measured by the first optical measurement sensor, and from the position of the label in the longitudinal direction of the container which is measured by the first label position measuring unit, wherein the first label position measuring unit includes a second light source that illuminates a side face of the container, and a second optical measurement sensor that measures scattered light or reflected light resulting from impinging of light from the second light source on the container, wherein the second light source emits light to an intersection between an optical axis of the light from the first light source and the surface of the container. a first light source that illuminates a side face of a container containing a sample; a first optical measurement sensor that is located on the opposite side of the container from the first light source, and measures transmitted light from the first light source; a first label position measuring unit that measures a position of a label affixed to the container; characterized in that the device further comprises: an analysis section that calculates a liquid-surface position or an interface position of the sample in the container, from transmitted-light intensity data in a longitudinal direction of the container which is measured by the first optical measurement sensor, and from the position of the label in the longitudinal direction of the container which is measured by the first label position measuring unit, wherein the first label position measuring unit includes a second light source that illuminates a side face of the container, and a second optical measurement sensor that measures scattered light or reflected light resulting from impinging of light from the second light source on the container, wherein the second light source emits light to an intersection between an optical axis of the light from the first light source and the surface of the container.
A computer-implemented method for performing multi-channel hierarchical image segmentation analysis of tissue types, cell units and sub-cellular units in biological tissue, the method comprising: accessing image data corresponding to a multi-channel multiplexed image of biological tissue sequentially fluorescent stained to manifest expression levels of a plurality of morphological biomarkers in the biological tissue, wherein the image comprises different channels that provide structural information of the biological tissue in terms of nuclei, membranes and cytoplasms; performing multi-channel image segmentation analysis on the image data based on the biomarker expression levels to identify locations and configurations of one or more cells in the biological tissue; performing multi-channel image segmentation analysis on the image data based on the biomarker expression levels to identify locations and configurations of one or more sub-cellular morphological units within the one or more cells, wherein the one or more sub-cellular morphological units include a membrane or a cytoplasm; rendering, on a visual display device, a hierarchical representation of the one or more cells and the one or more sub-cellular morphological units in the one or more cells, wherein the hierarchical representation assigns a spatial order within the one or more sub-cellular morphological units; wherein the method is characterized in that the multi-channel image segmentation analysis comprises generating scalar value images by integrating information from different channels of the multi-channel multiplexed image with respect to either the membrane or the cytoplasm, and identifying, based on the scalar value images, the membrane or cytoplasm by generating a two-dimensional ring modeling the membrane or the cytoplasm using a probability map, where values with maxima probability are assigned to a medial axis of the two-dimensional ring. accessing image data corresponding to a multi-channel multiplexed image of biological tissue sequentially fluorescent stained to manifest expression levels of a plurality of morphological biomarkers in the biological tissue, wherein the image comprises different channels that provide structural information of the biological tissue in terms of nuclei, membranes and cytoplasms; performing multi-channel image segmentation analysis on the image data based on the biomarker expression levels to identify locations and configurations of one or more cells in the biological tissue; performing multi-channel image segmentation analysis on the image data based on the biomarker expression levels to identify locations and configurations of one or more sub-cellular morphological units within the one or more cells, wherein the one or more sub-cellular morphological units include a membrane or a cytoplasm;
Acoustic liner which comprises: - a facing sheet that comprises holes, the facing sheet having a porosity and a facing sheet thickness (d), - a backing sheet, - a plurality of cells arranged between the facing sheet and the backing sheet, the cells having a cell depth (L 1) and each cell defining a cavity, and - a plurality of internal necks extending from the inner side of the facing sheet towards the backing sheet, each internal neck being located around a hole of the facing sheet, thereby extending the longitudinal length (L 2) of the hole, characterized in that - the acoustic liner is adapted to have a peak attenuation at a frequency in the range between 4.000 Hz and 8.000 Hz, - the cell depth (L 1) of the cells is in the range between 2 and 5 mm, - the neck has a length up to 2 millimeter, - the facing sheet including the plurality of internal necks, the backing sheet and the cells have been manufactured by 3D printing, and - each cell of the acoustic liner is associated with a plurality of holes in the facing sheet, each of the holes provided with an internal neck. - a facing sheet that comprises holes, the facing sheet having a porosity and a facing sheet thickness (d), - a backing sheet, - a plurality of cells arranged between the facing sheet and the backing sheet, the cells having a cell depth (L 1) and each cell defining a cavity, and - a plurality of internal necks extending from the inner side of the facing sheet towards the backing sheet, each internal neck being located around a hole of the facing sheet, thereby extending the longitudinal length (L 2) of the hole, characterized in that - the acoustic liner is adapted to have a peak attenuation at a frequency in the range between 4.000 Hz and 8.000 Hz, - the cell depth (L 1) of the cells is in the range between 2 and 5 mm, - the neck has a length up to 2 millimeter, - the facing sheet including the plurality of internal necks, the backing sheet and the cells have been manufactured by 3D printing, and - each cell of the acoustic liner is associated with a plurality of holes in the facing sheet, each of the holes provided with an internal neck.
A window leaf or door leaf, comprising (a) a leaf frame formed from sections of a hollow-chamber profile, wherein a reinforcing element (13, 13') is accommodated in at least one hollow chamber of the hollow-chamber profile; (b) a reinforcing element (13, 13') accommodated in a hollow chamber of the hollow-chamber profile; (c) a panel element accommodated in the leaf frame; and (d) at least one carrier element to support the panel element in the leaf frame of the window leaf or door leaf, wherein the carrier element comprises a bearing element to provide a bearing surface for the panel element and at least one support element (3, 3') to support the carrier element on a profile wall of a profile section of the hollow-chamber profile, wherein the at least one support element (3, 3') at least partly bears against a profile wall of the geodetically lower profile section of the hollow-chamber profile, characterised in that the carrier element additionally comprises at least one engagement element (4, 4'), which can be brought into engagement with the reinforcing element that is accommodated in a hollow chamber of the profile section that adjoins the profile section on one profile wall of which the at least one support element (3, 3') is supported, wherein the at least one engagement element (4, 4') is engaged with the reinforcing element that is arranged in a hollow chamber of a profile section of the hollow-chamber profile adjoining the geodetically lower profile section. (a) a leaf frame formed from sections of a hollow-chamber profile, wherein a reinforcing element (13, 13') is accommodated in at least one hollow chamber of the hollow-chamber profile; (b) a reinforcing element (13, 13') accommodated in a hollow chamber of the hollow-chamber profile; (c) a panel element accommodated in the leaf frame; and (d) at least one carrier element to support the panel element in the leaf frame of the window leaf or door leaf, wherein the carrier element comprises a bearing element to provide a bearing surface for the panel element and at least one support element (3, 3') to support the carrier element on a profile wall of a profile section of the hollow-chamber profile, wherein the at least one support element (3, 3') at least partly bears against a profile wall of the geodetically lower profile section of the hollow-chamber profile,
A method, comprising: receiving first data corresponding to a first weld waveform generated during a welding operation, wherein the first weld waveform corresponds to a voltage level over time; receiving second data corresponding to a second weld waveform generated during the welding operation, wherein the second weld waveform corresponds to a current level over time; characterized by determining, based on the first data, a first percent corresponding to a voltage ramp percent or a voltage falling edge percent with respect to a peak in the first weld waveform; determining, based on the second data, a second percent corresponding to a current ramp percent or a current falling edge percent with respect to a peak in the second weld waveform; and determining, based on a comparison between the first percent and the second percent, a voltage for the welding operation that compensates for an inductance level present in one or more secondary components associated with the welding operation. receiving first data corresponding to a first weld waveform generated during a welding operation, wherein the first weld waveform corresponds to a voltage level over time; receiving second data corresponding to a second weld waveform generated during the welding operation, wherein the second weld waveform corresponds to a current level over time; characterized by determining, based on the first data, a first percent corresponding to a voltage ramp percent or a voltage falling edge percent with respect to a peak in the first weld waveform; determining, based on the second data, a second percent corresponding to a current ramp percent or a current falling edge percent with respect to a peak in the second weld waveform; and determining, based on a comparison between the first percent and the second percent, a voltage for the welding operation that compensates for an inductance level present in one or more secondary components associated with the welding operation.
Collapsible drinks-crate support for a shopping trolley comprising an undercarriage and a wire basket connected thereto, wherein the drinks-crate support comprises two sub-elements (110, 120) which are connected to one another in an articulated manner, are coupled to one another in a form-fitting manner and can be attached to the shopping trolley in an articulated manner, and wherein the front sub-element of the drinks-crate support has two vertically positioned U-shaped wire loops, which are oriented parallel to one another and each form a guide track, in which the rear sub-element is guided in a movable manner, characterized in that the rear sub-element is guided on the guide tracks via two angled bracket extensions, which are located on a common centre axis, and in that the front sub-element has an indent at the start of each of the guide tracks, wherein the indents are located in a plane which is perpendicular to the vertical planes of the guide tracks.
A combine harvester comprising a grain cleaning system, the cleaning system comprising a pair of side walls, a rear wall that extends between the side walls, a sieve (50, 52) operable to oscillate in a fore and aft path between the side walls, a fan unit for generating a cleaning airstream, and an outlet for discharging residue from a grain cleaning process, wherein the outlet is framed in part by a lower edge of the rear wall, characterised in that the rear wall is provided with an aperture.
A compound of the Formula: wherein R 1 and R 2 are independently (C 1-4) branched or unbranched alkyl groups, and cyclic and/or unsaturated versions thereof; R 3 is hydrogen; and R 4 is a (C 1-10) branched or unbranched alkyl group, and cyclic and/or unsaturated versions thereof, wherein the R 4 (C 1-10) alkyl group is optionally substituted with hydroxyl, halogen, amino, and thiol; provided that, when R 1 and R 2, are methyl, R 4 is not methyl; or a salt or solvate thereof. R 1 and R 2 are independently (C 1-4) branched or unbranched alkyl groups, and cyclic and/or unsaturated versions thereof; R 3 is hydrogen; and R 4 is a (C 1-10) branched or unbranched alkyl group, and cyclic and/or unsaturated versions thereof, wherein the R 4 (C 1-10) alkyl group is optionally substituted with hydroxyl, halogen, amino, and thiol; provided that, when R 1 and R 2, are methyl, R 4 is not methyl; or a salt or solvate thereof.
Tank filling device, comprising a housing with a liquid inlet, a liquid outlet at the bottom of the housing, an overflow disposed at the housing and a one-way valve for opening and closing the liquid outlet, wherein the one-way valve comprises a valve body and a tension element configured to bias the valve body into a closed state, characterized in that the one-way valve is a pot valve with a valve body comprising a chamber open towards the liquid outlet and a one-way drain valve arranged at the chamber with its downstream side directed towards the exterior of the chamber.
An apparatus for inspecting defects of a secondary battery, the apparatus comprising: a pair of pressing jigs (310, 320) for pressing an outer surface of an electrode assembly or a pouch accommodating the electrode assembly in directions towards each other and on which a plurality of protrusions (311, 321) protrude from pressing surfaces of the pair of pressing jigs (310, 320); and a measurement unit for measuring one or more of current, a voltage, and resistance of the electrode assembly when the electrode assembly is pressed by the plurality of protrusions (311, 321) of the pair of pressing jigs (310, 320), wherein each of the protrusions (311, 321) has a spherical shape, each of the pressing jigs (310, 320) has a mounting groove (312, 322) in which a corresponding one of each of the protrusions (311, 321) is mounted, and the corresponding protrusion (311, 321) is mounted in the mounting groove (312, 322) so that a portion of the corresponding protrusion (311, 321) protrudes to the outside of the mounting groove (312, 322). a pair of pressing jigs (310, 320) for pressing an outer surface of an electrode assembly or a pouch accommodating the electrode assembly in directions towards each other and on which a plurality of protrusions (311, 321) protrude from pressing surfaces of the pair of pressing jigs (310, 320); and a measurement unit for measuring one or more of current, a voltage, and resistance of the electrode assembly when the electrode assembly is pressed by the plurality of protrusions (311, 321) of the pair of pressing jigs (310, 320), wherein each of the protrusions (311, 321) has a spherical shape, each of the pressing jigs (310, 320) has a mounting groove (312, 322) in which a corresponding one of each of the protrusions (311, 321) is mounted, and the corresponding protrusion (311, 321) is mounted in the mounting groove (312, 322) so that a portion of the corresponding protrusion (311, 321) protrudes to the outside of the mounting groove (312, 322).
A hair styling apparatus comprising a first and a second arm (22a, 22b) coupled at one end, and each comprising a heatable plate (23a, 23b) and arm member, wherein the first and second arms are moveable between a closed position in which said heatable plate of said first arm is adjacent said heatable plate of said second arm and an open position in which said heatable plates of the first and second arms are spaced apart, and wherein said heatable plate of at least one of said arms is coupled to a respective arm member by means of a plate pivot arranged to allow said heatable plate to move relative to said respective arm member about an axis transverse to the length of said respective arm member, characterised in that said heatable plate of said at least one arm is biased to cause an end of said heatable plate of said at least one arm furthest from said coupled ends of said arms, to contact said heatable plate of said other arm first when moved from said open position to said closed position.
A bis(6-methyl-3-sulphonatophenyl)(2-methylphenyl)phosphine diammonium salt obtained by reacting bis(6-methyl-3-sulphophenyl)(2-methylphenyl)phosphine with a tertiary amine having a total of 3 to 27 carbon atoms in groups bonded to one nitrogen atom.
A medically active liquid comprising remdesivir or a pharmaceutically acceptable salt thereof for use in the treatment or prevention of a viral infection or viral disease, disorder or condition in a subject, wherein the medically active liquid is administered to the subject in nebulized form by inhalation using an inhalation device, wherein the medically active liquid comprises an alcohol; wherein the medically active liquid comprises a concentration of remdesivir of 10 μg/μL to 30 μg/μL; wherein the inhalation device used to administer the medically active liquid comprising the remdesivir or a pharmaceutically acceptable salt thereof is a soft-mist-inhaler comprising at least one impingement-type nozzle; and wherein the viral infection, disorder or condition is a respiratory or pulmonary infection or respiratory or pulmonary disease, disorder, or condition. wherein the medically active liquid comprises an alcohol; wherein the medically active liquid comprises a concentration of remdesivir of 10 μg/μL to 30 μg/μL; wherein the inhalation device used to administer the medically active liquid comprising the remdesivir or a pharmaceutically acceptable salt thereof is a soft-mist-inhaler comprising at least one impingement-type nozzle; and wherein the viral infection, disorder or condition is a respiratory or pulmonary infection or respiratory or pulmonary disease, disorder, or condition.
Method for controlling a distance of a vehicle to a closest preceding vehicle, whereby the vehicle has a trailer connected thereto, comprising the steps of determining a velocity of the vehicle, detecting a closest preceding vehicle, determining a distance to the closest preceding vehicle, and determining a safe distance based on the velocity of the vehicle and the distance to the closest preceding vehicle, determining an extra safe distance based on at least one characteristic of the trailer, and performing a control of the distance to the closest preceding vehicle to stay above the safe distance plus the extra safe distance while the step of performing a control of the distance to the closest preceding vehicle to stay above the safe distance plus the extra safe distance comprises determining a distance to the closest preceding vehicle, comparing the distance to the closest preceding vehicle to the safe distance plus the extra safe distance, and controlling the vehicle to reduce the distance to the closest preceding vehicle, if the distance to the closest preceding vehicle is bigger than the safe distance plus the extra safe distance, and controlling the vehicle to increase the distance to the closest preceding vehicle, if the distance to the closest preceding vehicle is smaller than the safe distance plus the extra safe distance, characterized in that the step of determining a distance to the closest preceding vehicle comprises determining a road feature (52, 54, 56) when appearing for a first time at a back of the closest preceding vehicle, determining a distance to the road feature (52, 54, 56) with a pre-set period, until the road feature (52, 54, 56) is not visible, determining a change in distance (66, 68) of the road feature (52, 54, 56) for each period, and summing up the changes in the distance (66, 68) for all periods.