mhurhangee/ep-ind-claims huggingface dataset:
A fixing method of trim board comprising fixing a trim board by fitting a clip of the trim board which uses for covering an inner surface of a vehicle body including a guide rail attachment position to a fitting hole formed on a guide rail in a periphery of a sliding window for a vehicle, wherein the sliding window includes: a sliding panel slidably attached to the vehicle body; the guide rail integrated with the vehicle body and extending in a slide direction of the sliding panel; and a sliding bracket integrally including a sliding portion slidably coupled to the guide rail and a fixed portion fixed to the sliding panel, wherein the guide rail is provided with a circular-arc shaped upper slide groove and a channel-shaped lower slide groove, the sliding bracket is slidable in the upper slide groove, the fitting hole is formed between the upper slide groove and the lower slide groove, and the sliding bracket includes a first plate member which extends upward from the sliding portion and fixes the sliding panel, a second plate member, and a block attached to the second plate member 326 of the sliding bracket 320 and fitted to the lower slide groove of the guide rail, and the guide rail is interposed between the first plate member and the second plate member of the sliding bracket.
A crystalline Form A of -1-(5'-(5-(3,5-dichloro-4-fluorophenyl)-5-(trifluoromethyl)-4,5-dihydroisoxazol-3-yl)-3'H-spiro[azetidine-3,1'-isobenzofuran]-1-yl)-2-(methylsulfonyl)ethanone which exhibits at least one of the following properties: a) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07; b) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07, and further comprising at least one additional diffraction peak expressed in degrees 2θ (± 0.2°) selected from the group consisting of peaks at about 4.70, 9.39, 14.10, 15.70, 19.12, 20.97, 21.42, 22.03, 22.54, 23.62, and 28.42; c) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07, and further comprising at least one additional diffraction peak expressed in degrees 2θ (±0.2°) at about 21.42 and 28.42; d) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, 20.07, 21.42, 22.54, and 28.42; e) a differential scanning calorimeter thermogram having a single predominant endotherm at about 145.53°C at a scan rate of 10°C per minute, as shown in Figure 3.1; and f) a differential scanning calorimeter thermogram having a single predominant endotherm within the range of 144.01 to 146.92°C at a scan rate of 10°C per minute, as shown in Figure 3.2. a) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07; b) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07, and further comprising at least one additional diffraction peak expressed in degrees 2θ (± 0.2°) selected from the group consisting of peaks at about 4.70, 9.39, 14.10, 15.70, 19.12, 20.97, 21.42, 22.03, 22.54, 23.62, and 28.42; c) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, and 20.07, and further comprising at least one additional diffraction peak expressed in degrees 2θ (±0.2°) at about 21.42 and 28.42; d) an X-ray diffraction pattern having characteristic peaks expressed in degrees 2θ (±0.2°) at about 17.18, 18.83, 20.07, 21.42, 22.54, and 28.42; e) a differential scanning calorimeter thermogram having a single predominant endotherm at about 145.53°C at a scan rate of 10°C per minute, as shown in Figure 3.1; and f) a differential scanning calorimeter thermogram having a single predominant endotherm within the range of 144.01 to 146.92°C at a scan rate of 10°C per minute, as shown in Figure 3.2.
Device for eliminating weeds, comprising a boiler for heating water and an application device for applying hot water to weeds that are to be eliminated, said application device being movable in a direction of travel over ground that has the weeds to be eliminated, the application device having a plurality of flexible skirts, which are suspended at top ends from a support structure of the device and, owing to their flexibility, rest on the ground by a bottom end portion when the device is in the operational state in which it is dragged over the ground in the direction of travel, at least one hot water conduit opening on the underside of said bottom end portion of each skirt, and the skirts being arranged with an offset in the direction at right angles to the direction of travel and the device being configured such that the skirts are adjustable between a resting state, in which the skirts are raised, the bottom ends of the skirts being located above the ground, and the operational state, in which the skirts are lowered, characterised in that the device is configured such that the skirts can be dragged over the ground in the operational state.
A liquid supply system supplying a liquid to a printer having a main tank, the liquid supply system comprising: one or a plurality of tubes configuring a supply flow path (W0; W10; W20; W30; S0) of the liquid to the main tank of the printer, the one or plurality of tubes being connected to a server tank configured to store the liquid, the server tank being positioned outside the printer and provided further upstream than the printer in the supply flow path, and the liquid flowing through the one or plurality of tubes between the server tank and the printer; a liquid delivery mechanism (20, 21, 26, 27) being a mechanism provided in the one or plurality of tubes and configured to switch between a liquid delivery state of the liquid flowing between the server tank and the printer via the one or plurality of tubes, and a stopped state of stopping the liquid from flowing between the server tank and the printer via the one of plurality of tubes; and a processor (41; 51), wherein the processor performs liquid delivery processing (S2, S3, S4, S7) of controlling the liquid delivery mechanism to be in the liquid delivery state and the stopped state based on a remaining amount indicated by a signal from a sensor (71; 185), the sensor being configured to detect the remaining amount of the liquid inside the server tank or inside the main tank. one or a plurality of tubes configuring a supply flow path (W0; W10; W20; W30; S0) of the liquid to the main tank of the printer, the one or plurality of tubes being connected to a server tank configured to store the liquid, the server tank being positioned outside the printer and provided further upstream than the printer in the supply flow path, and the liquid flowing through the one or plurality of tubes between the server tank and the printer; a liquid delivery mechanism (20, 21, 26, 27) being a mechanism provided in the one or plurality of tubes and configured to switch between a liquid delivery state of the liquid flowing between the server tank and the printer via the one or plurality of tubes, and a stopped state of stopping the liquid from flowing between the server tank and the printer via the one of plurality of tubes; and a processor (41; 51), wherein the processor performs liquid delivery processing (S2, S3, S4, S7) of controlling the liquid delivery mechanism to be in the liquid delivery state and the stopped state based on a remaining amount indicated by a signal from a sensor (71; 185), the sensor being configured to detect the remaining amount of the liquid inside the server tank or inside the main tank.
An endoscopic resection assembly, comprising: (a) an adaptor, configured to couple to an endoscopic device; (b) a pusher, disposed on the adaptor; (c) at least one driver, configured to move the pusher in a distal direction with respect to the adaptor; and (d) a cutting device, removably coupled to the pusher, wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor, wherein the adaptor is configured to be loaded with a clip, wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher, wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher. (a) an adaptor, configured to couple to an endoscopic device; (b) a pusher, disposed on the adaptor; (c) at least one driver, configured to move the pusher in a distal direction with respect to the adaptor; and (d) a cutting device, removably coupled to the pusher, wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor, wherein the adaptor is configured to be loaded with a clip, wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher, wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher. wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor, wherein the adaptor is configured to be loaded with a clip, wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher, wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher.
A liner assembly tool comprising: a base tubular (306, 510) that comprises a bore therethrough; a wellbore liner (145, 312, 504) that comprises a liner top and is coupled to the base tubular; a pack-off element (328, 500) radially positioned between the base tubular (306, 510) and the wellbore liner (145, 312, 504), the pack-off element (328, 500) to ride on the base tubular (306, 510) as the base tubular (306, 510) is run into the wellbore; a wedge positioned to ride on the base tubular (306, 510) as the base tubular (306, 510) is run into the wellbore, the wedge configured to expand the pack-off element (328, 500) so that the pack-off element (328, 500) engages a casing of the wellbore wall to at least partially seal the liner top to a wellbore wall based on a particular fluid pressure supplied through the bore; and a biasing member positioned to abut the wedge and drive the wedge uphole to expand the pack-off element (328, 500) to at least partially seal the liner top (145, 312, 504) to the wellbore wall based on the particular fluid pressure supplied through the bore. a base tubular (306, 510) that comprises a bore therethrough; a wellbore liner (145, 312, 504) that comprises a liner top and is coupled to the base tubular; a pack-off element (328, 500) radially positioned between the base tubular (306, 510) and the wellbore liner (145, 312, 504), the pack-off element (328, 500) to ride on the base tubular (306, 510) as the base tubular (306, 510) is run into the wellbore; a wedge positioned to ride on the base tubular (306, 510) as the base tubular (306, 510) is run into the wellbore, the wedge configured to expand the pack-off element (328, 500) so that the pack-off element (328, 500) engages a casing of the wellbore wall to at least partially seal the liner top to a wellbore wall based on a particular fluid pressure supplied through the bore; and a biasing member positioned to abut the wedge and drive the wedge uphole to expand the pack-off element (328, 500) to at least partially seal the liner top (145, 312, 504) to the wellbore wall based on the particular fluid pressure supplied through the bore.
Radiotherapy device for radiation therapy with X-rays, wherein the radiotherapy device is used for irradiating the vagina or the rectum, with a radiation source and with an applicator for receiving a probe or a radiation source element of the radiation source, wherein the applicator is designed as a vaginal applicator or as a rectal applicator, wherein the applicator has a first applicator element designed as an inner applicator element, wherein the probe or the radiation source element of the radiation source is provided in the inner applicator element, wherein the inner applicator element has a foot area, via which the inner applicator element is secured on the radiation source, a cylindrical guide area adjoining the foot area, and a tip lying opposite the foot area, wherein the applicator has a second applicator element, which is designed as an outer applicator element in relation to the inner applicator element, wherein the outer applicator element has a receiving space for receiving the inner applicator element, wherein the outer applicator element for this purpose has a cylindrical guide area (23, 26), and wherein the cylindrical guide area of the inner applicator element is inserted into the cylindrical guide area of the outer applicator element, and wherein the inner applicator element is closed at its tip and the outer applicator element is closed at its tip.
Device for air-conditioning a room having at least one heat exchanger which is allocated to a room surface, has a heat transfer fluid flowing through it and is formed by a pipeline, wherein the at least one pipeline is fastened to holding profiles orientated transversely to the pipeline axis and allocated to the room surface, these holding profiles comprising, in the profile longitudinal direction, a plurality of receivers for the at least one pipeline, and wherein each at least two holding profiles allocated to a heat exchanger are provided at a distance along the pipe axis, which distance is fixed by spacers which can be attached to the holding profiles and which engage in the receivers, preferably in a snap-fit manner, characterised in that the spacers comprise holding regions allocated to the receiver and defined axially by stops, the outer diameter of which is larger than the receiver diameter and the axial spacing of which corresponds to the profile width (a).
An integrated dental component and tool driver comprising (i) a lower portion of the driver having an asymmetrical, conical taper, said conical taper providing a friction fit engagement between said lower portion and the dental component, such that rotating said tool driver effects rotation of the dental component, and (ii) an upper portion of the driver which is removably received within a bore in said lower portion, which upper portion is a screwdriver or other device that allows the clinician to tighten a screw inside the dental component, and whereby the upper portion projects through the bore in lower portion. (i) a lower portion of the driver having an asymmetrical, conical taper, said conical taper providing a friction fit engagement between said lower portion and the dental component, such that rotating said tool driver effects rotation of the dental component, and (ii) an upper portion of the driver which is removably received within a bore in said lower portion, which upper portion is a screwdriver or other device that allows the clinician to tighten a screw inside the dental component, and whereby the upper portion projects through the bore in lower portion.
A polymeric semipermeable nanofiltration membrane comprising an ultrafiltration or a microfiltration membrane comprising a non-cross-linked base polymer having reactive pendant moieties selected from the group consisting of polyacrylonitrile and copolymers of polyacrylonitrile, and said reactive pendant moieties being nitrile, said base polymer being modified by forming a cross-linked skin onto a surface thereof, said skin being formed by a cross-linking reaction of the reactive pendant moieties on said surface with polyethylenimine, wherein a nanofiltration layer is formed over at least a portion of said cross-linked skin and is covalently bonded thereto, wherein said nanofiltration layer is formed from: (i) at least one di-, tri- or tetra-halo substituted diazine or triazine-containing monomer, oligomer or polymer, and (ii) at least one multifunctional amine having a molecular weight in the range of 400 to 750,000, provided that at least one of the di-, tri- or tetra-halo substituted diazine or triazine-containing monomer, oligomer or polymer is not a di- or triazine monomer which is substituted only by chloro. (i) at least one di-, tri- or tetra-halo substituted diazine or triazine-containing monomer, oligomer or polymer, and (ii) at least one multifunctional amine having a molecular weight in the range of 400 to 750,000, provided that at least one of the di-, tri- or tetra-halo substituted diazine or triazine-containing monomer, oligomer or polymer is not a di- or triazine monomer which is substituted only by chloro.
An optical article comprising: at least a first polarizing filter comprising at least one dichroic dye, having a first polarization axis and a polarization efficiency of greater than or equal to about 90%; and a second polarizing filter comprising at least another dichroic dye, having a second polarization axis and a polarization efficiency of between about 10% and about 99%, wherein the polarization axis of the second polarizing filter is positioned orthogonally relative to the polarization axis of the first polarizing filter such that the optical article selectively blocks at least 95% of light within a wavelength range comprised between 400 nm to about 450 nm, the optical article has a Blue Violet Cut value of greater than or equal to 99%, while transmitting light within a wavelength range comprised between 460 nm to about 700 nm. at least a first polarizing filter comprising at least one dichroic dye, having a first polarization axis and a polarization efficiency of greater than or equal to about 90%; and a second polarizing filter comprising at least another dichroic dye, having a second polarization axis and a polarization efficiency of between about 10% and about 99%, wherein the polarization axis of the second polarizing filter is positioned orthogonally relative to the polarization axis of the first polarizing filter such that the optical article selectively blocks at least 95% of light within a wavelength range comprised between 400 nm to about 450 nm, the optical article has a Blue Violet Cut value of greater than or equal to 99%, while transmitting light within a wavelength range comprised between 460 nm to about 700 nm.
A system for priming a dry inkjet printhead, said system comprising: the inkjet printhead having an inlet port connected to an upstream ink line and an outlet port connected to a downstream ink line; a pump operably connected to the downstream ink line; a capper engaged with the printhead; a vacuum source for applying suction to a capping chamber of the capper; and a control system for coordinating actuation of the pump and the vacuum source, wherein, in use, the pump is actuated simultaneously with the vacuum source, thereby drawing ink through the printhead from the inlet port to the outlet port and priming the printhead. the inkjet printhead having an inlet port connected to an upstream ink line and an outlet port connected to a downstream ink line; a pump operably connected to the downstream ink line; a capper engaged with the printhead; a vacuum source for applying suction to a capping chamber of the capper; and a control system for coordinating actuation of the pump and the vacuum source, wherein, in use, the pump is actuated simultaneously with the vacuum source, thereby drawing ink through the printhead from the inlet port to the outlet port and priming the printhead.
A system for modelling an anatomical structure, including: a probe, said probe including an ultrasonic sensor comprising an array of ultrasound transducers, which is configured to acquire an ultrasonic image of the anatomical structure at a respective spatial position of the probe, and said probe including a position sensor, which is configured to measure location and orientation coordinates of the ultrasonic sensor at the spatial position; a position processor, which is coupled to receive the ultrasonic image and the measured location and orientation coordinates and to calculate a 3-D position of the ultrasonic image based on the measured location and orientation coordinates; and an interactive display, which is coupled to receive a manual tagging input marking contours-of-interest (94, 96) that refer to features of the anatomical structure in the ultrasonic image (98, 102) and to display at least part of the ultrasonic image and the contours-of-interest (94, 96) in a 3-D space based on the calculated 3-D position of the ultrasonic image and, an image processor configured to identify and reconstruct contours (84, 86) corresponding to said contours-of-interest in at least some of any remaining untagged ultrasonic images, the image processor being further configured to construct a 3-D structural model based on multiple ultrasonic images and the corresponding measured location and orientation coordinates at which each of the ultrasonic images was captured, wherein said contours are used to segment 3-D structures in the 3-D structural model. a probe, said probe including an ultrasonic sensor comprising an array of ultrasound transducers, which is configured to acquire an ultrasonic image of the anatomical structure at a respective spatial position of the probe, and said probe including a position sensor, which is configured to measure location and orientation coordinates of the ultrasonic sensor at the spatial position; a position processor, which is coupled to receive the ultrasonic image and the measured location and orientation coordinates and to calculate a 3-D position of the ultrasonic image based on the measured location and orientation coordinates; and an interactive display, which is coupled to receive a manual tagging input marking contours-of-interest (94, 96) that refer to features of the anatomical structure in the ultrasonic image (98, 102) and to display at least part of the ultrasonic image and the contours-of-interest (94, 96) in a 3-D space based on the calculated 3-D position of the ultrasonic image and, an image processor configured to identify and reconstruct contours (84, 86) corresponding to said contours-of-interest in at least some of any remaining untagged ultrasonic images, the image processor being further configured to construct a 3-D structural model based on multiple ultrasonic images and the corresponding measured location and orientation coordinates at which each of the ultrasonic images was captured, wherein said contours are used to segment 3-D structures in the 3-D structural model.