mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for applying a thermoplastic powder to internal threads of a fastener, where the fastener has a bore containing the internal threads, a first surface and a second surface, the apparatus comprising: a) a vacuum nozzle having a vacuum passage and an end having a vacuum passage opening where the end is adapted to engage the first surface of the fastener and the vacuum passage is adapted to communicate with a suction source; b) a spray tube having a spray passage and a distal end portion featuring a spray passage opening where the distal end portion of the spray tube is sized to be inserted within the bore of the fastener and the spray passage is adapted to communicate with a source or sources of thermoplastic powder and pressurized air; c) a bushing mounted on the spray tube so that the spray tube is able to slide with respect to the bushing, said bushing adapted to engage the second surface of the fastener; d) said spray tube and bushing movable between clamping positions, where the end of the vacuum nozzle and the bushing engage the first and second surfaces of the fastener and release positions where the vacuum nozzle and the bushing do not engage the first and second surfaces of the fastener; and e) a fastener holder adapted to hold the fastener between the vacuum nozzle and the bushing so that when the vacuum nozzle and the bushing are in the clamping positions, the passage of the vacuum nozzle is in communication with the bore of the fastener and the spray tube is able enter the bore of the fastener and spray thermoplastic powder on the internal threads of the fastener with excess thermoplastic powder collected by the vacuum nozzle. a) a vacuum nozzle having a vacuum passage and an end having a vacuum passage opening where the end is adapted to engage the first surface of the fastener and the vacuum passage is adapted to communicate with a suction source; b) a spray tube having a spray passage and a distal end portion featuring a spray passage opening where the distal end portion of the spray tube is sized to be inserted within the bore of the fastener and the spray passage is adapted to communicate with a source or sources of thermoplastic powder and pressurized air; c) a bushing mounted on the spray tube so that the spray tube is able to slide with respect to the bushing, said bushing adapted to engage the second surface of the fastener; d) said spray tube and bushing movable between clamping positions, where the end of the vacuum nozzle and the bushing engage the first and second surfaces of the fastener and release positions where the vacuum nozzle and the bushing do not engage the first and second surfaces of the fastener; and e) a fastener holder adapted to hold the fastener between the vacuum nozzle and the bushing so that when the vacuum nozzle and the bushing are in the clamping positions, the passage of the vacuum nozzle is in communication with the bore of the fastener and the spray tube is able enter the bore of the fastener and spray thermoplastic powder on the internal threads of the fastener with excess thermoplastic powder collected by the vacuum nozzle.
Hydrosilylable mixture M comprising a compound having at least one hydrogen atom directly bonded to Si, a compound comprising at least one carbon-carbon multiple bond and a compound comprising at least one available intramolecular cationic Si-H-Si moiety with silicon in oxidation state IV. a compound having at least one hydrogen atom directly bonded to Si, a compound comprising at least one carbon-carbon multiple bond and a compound comprising at least one available intramolecular cationic Si-H-Si moiety with silicon in oxidation state IV.
Weapon barrel having a mirror-symmetrical four-grooved land-groove profile for highly stressed weapons, each land having straight land flanks (25.3, 25.4), the contour of all grooves running on a circle which has a groove radius and of which the circle center point is on an angle bisector which intersects the relevant land centrally, the contour of each of the lands running on a circle of which the center point is on the angle bisector, characterized in that the radius of the circle on which the contour of each of the lands runs is greater than the groove radius and smaller than infinity.
A radiation therapy treatment system to predict a radiation therapy dose, comprising: an image acquisition device to acquire one or more three-dimensional medical images; a machine-readable medium to store the one or more three-dimensional medical images, a neural network model, one or more three-dimensional anatomy maps and one or more three-dimensional dose distributions; an image processing device configured to: train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions. a machine-readable medium to store the one or more three-dimensional medical images, a neural network model, one or more three-dimensional anatomy maps and one or more three-dimensional dose distributions; an image processing device configured to: train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions. train the neural network model to predict a fluence map and a dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, use the trained neural network model to predict a fluence map and dose map based on one or more three-dimensional medical images and one or more three-dimensional anatomy maps, wherein the fluence map depicts localized deposition of energy in a patient and the dose map depicts a radiation dose to be delivered to a patient from a radiotherapy device at a particular location; and generate a three-dimensional dose distribution based on the neural network predictions.
A system for suspending particles, said system comprising: a reagent cartridge comprising a plurality of tubes and a reagent holder for holding said plurality of tubes (78, 80), said plurality of tubes (78, 80) comprising: a mixing tube for holding particles, said mixing tube rotatably mounted in said holder, comprising a lumen, a top end and a lower section positioned on an end opposite to said top end, an interior surface, an exterior surface, at least two agitating members (86, 88), said at least two agitating members (86, 88) formed by extending said interior surface of said mixing tube into the lumen of said mixing tube, the dimensions and positioning of said at least two agitating members (86, 88) corresponding to at least two longitudinal grooves (90, 91) on said exterior surface of said mixing tube, said mixing tube further comprising at least one slot (100, 101) and a cylindrical member longitudinally positioned on said lower section of said mixing tube; and a motor operatively connectable to said slot (100, 101) and said cylindrical member, said motor combining a stepper-motor for rotation and a linear actuator which can move vertically to engage said cylindrical member of said tube via at least two pins (106, 108) in a set of pins (106, 108), wherein a first pin in the set of pins (106, 108) may engage the cylindrical member and a second pin in the set of pins (106, 108) may engage said at least one slot (100, 101) so that rotation of the stepper-motor rotates the linear actuator and the mixing tube. a mixing tube for holding particles, said mixing tube rotatably mounted in said holder, comprising a lumen, a top end and a lower section positioned on an end opposite to said top end, an interior surface, an exterior surface, at least two agitating members (86, 88), said at least two agitating members (86, 88) formed by extending said interior surface of said mixing tube into the lumen of said mixing tube, the dimensions and positioning of said at least two agitating members (86, 88) corresponding to at least two longitudinal grooves (90, 91) on said exterior surface of said mixing tube, said mixing tube further comprising at least one slot (100, 101) and a cylindrical member longitudinally positioned on said lower section of said mixing tube; and a motor operatively connectable to said slot (100, 101) and said cylindrical member, said motor combining a stepper-motor for rotation and a linear actuator which can move vertically to engage said cylindrical member of said tube via at least two pins (106, 108) in a set of pins (106, 108), wherein a first pin in the set of pins (106, 108) may engage the cylindrical member and a second pin in the set of pins (106, 108) may engage said at least one slot (100, 101) so that rotation of the stepper-motor rotates the linear actuator and the mixing tube.
A computer-implemented method for display of intestinal motility events in an image stream captured by an in vivo imaging device, the method comprising: receiving an image stream captured by the in vivo device, the image stream comprising image frames, each image frame comprising a plurality of image pixels; and detecting a predetermined feature in each image frame of at least a subset of the image stream, the method further characterized by: selecting a strip of pixels from each image frame of the at least subset of the image stream, such that the strip of pixels passes through the detected feature in each image frame; aligning the selected strips adjacently to form a motility events bar; and displaying the motility events bar on a visual display unit. receiving an image stream captured by the in vivo device, the image stream comprising image frames, each image frame comprising a plurality of image pixels; and detecting a predetermined feature in each image frame of at least a subset of the image stream, the method further characterized by: selecting a strip of pixels from each image frame of the at least subset of the image stream, such that the strip of pixels passes through the detected feature in each image frame; aligning the selected strips adjacently to form a motility events bar; and displaying the motility events bar on a visual display unit. selecting a strip of pixels from each image frame of the at least subset of the image stream, such that the strip of pixels passes through the detected feature in each image frame; aligning the selected strips adjacently to form a motility events bar; and displaying the motility events bar on a visual display unit.
A turbine airfoil apparatus (10, 110) comprising: an airfoil (18, 118) including a concave pressure sidewall (20, 120) and a convex suction sidewall (22, 122) joined together at a leading edge (24, 124) and at a trailing edge (26, 126); an endwall (16, 116) that projects laterally outwardly from the airfoil (18, 118) at one spanwise end thereof, the endwall (16,116) having an outer surface (42,142) facing the airfoil 18, 118) and an opposing inner surface (40, 140); a plenum (44, 144) defined within the endwall (16, 116) between the inner (40, 140) and outer surfaces (42, 142) wherein the plenum (44, 144) is forked in plan view, with at least two branches, and at least one film cooling hole (48, 148) passing through the outer surface (42, 142) and communicating with the plenum (44, 144), characterized in each branch having a throat (2, 4, 102, 104) disposed at its upstream end an airfoil (18, 118) including a concave pressure sidewall (20, 120) and a convex suction sidewall (22, 122) joined together at a leading edge (24, 124) and at a trailing edge (26, 126); an endwall (16, 116) that projects laterally outwardly from the airfoil (18, 118) at one spanwise end thereof, the endwall (16,116) having an outer surface (42,142) facing the airfoil 18, 118) and an opposing inner surface (40, 140); a plenum (44, 144) defined within the endwall (16, 116) between the inner (40, 140) and outer surfaces (42, 142) wherein the plenum (44, 144) is forked in plan view, with at least two branches, and at least one film cooling hole (48, 148) passing through the outer surface (42, 142) and communicating with the plenum (44, 144), characterized in each branch having a throat (2, 4, 102, 104) disposed at its upstream end
Door module for a door of a motor vehicle, having a carrier to receive a window winder drive as well as having fastening points at which the door module is able to be fastened to the allocated door, characterised in that at least one sensor electrode (11, 12, 25) of a capacitive and/or inductive control device (10, 17-19, 21) for contactless actuation of an actuator (6, 23) in the motor vehicle is attached to or inserted into the carrier.
A mill for crushing steel slag or bottom ash to separate metals and slag, which mill comprises a casing, a cover plate, a bottom plate and a crushing mechanism inside the casing by means of which crushing mechanism the steel slag and/or the bottom ash are crushed, and which crushing mechanism comprises an inner rotor and an outer rotor, and that the material to be crushed is arranged to be fed to the center area of the inner rotor, from where it is ejected by a centrifugal force to the outer rotor and further outwards through outlets, characterized by a lower rotor below the inner rotor and outer rotor, which lower rotor is arranged to receive its rotational motion from its own power source, and further characterized in that the lower rotor comprises a bottom plate which comprises openings for the crushed material to fall through the openings. characterized by a lower rotor below the inner rotor and outer rotor, which lower rotor is arranged to receive its rotational motion from its own power source, and further characterized in that the lower rotor comprises a bottom plate which comprises openings for the crushed material to fall through the openings.
An exhaust diffuser arrangement for a turbine system comprising: an inlet for receiving a flow proximate a last stage bucket of the turbine system, the flow flowing in a first flow direction; and a flow redirecting component comprising: a first wall having a first side of a concave surface geometry for redirecting the flow and a second side of a convex surface geometry; and a second wall spaced downstream of the first wall, wherein the flow redirecting component further comprises: a cavity defined by the first wall and the second wall; and a first end including an opening for receiving the flow into the cavity, characterized in that the first wall and the second wall are operably coupled proximate a second end of the flow redirecting component; and wherein only the second wall has at least one flow exit for reducing a boundary layer along the second side of the first wall. an inlet for receiving a flow proximate a last stage bucket of the turbine system, the flow flowing in a first flow direction; and a flow redirecting component comprising: a first wall having a first side of a concave surface geometry for redirecting the flow and a second side of a convex surface geometry; and a second wall spaced downstream of the first wall, wherein the flow redirecting component further comprises: a cavity defined by the first wall and the second wall; and a first end including an opening for receiving the flow into the cavity, characterized in that the first wall and the second wall are operably coupled proximate a second end of the flow redirecting component; and wherein only the second wall has at least one flow exit for reducing a boundary layer along the second side of the first wall. a first wall having a first side of a concave surface geometry for redirecting the flow and a second side of a convex surface geometry; and a second wall spaced downstream of the first wall, a cavity defined by the first wall and the second wall; and a first end including an opening for receiving the flow into the cavity, characterized in that the first wall and the second wall are operably coupled proximate a second end of the flow redirecting component; and wherein only the second wall has at least one flow exit for reducing a boundary layer along the second side of the first wall.
An apparatus (10, 10', 110) for injecting a settable compound into an in-ear device, the apparatus (10, 10', 110) comprising: - a plurality of pressurizable component chambers (20a, 20b, 134) for containing components (A, B) of a settable compound, each said component chamber (20a, 20b, 134) being pressurizable by a pressure mechanism (19a, 19b, 114, 116) at a chamber pressure level; - a mixing element (21, 154) connected to all of the component chambers (20a, 20b, 134) via respective valves (27a, 27b, 142) positioned therebetween, all said respective valves (27a, 27b, 142) being simultaneously openable; - a first tube (31, 152) for connecting the mixing element (21, 154) to an in-flow canal of said device, and being characterised by a relief chamber (25, 164) being in contact with said pressure mechanism for being depressurizable thereby; and a second tube (33, 158) for connecting the relief chamber (25, 164) to an out-flow canal of said device; wherein, upon simultaneous opening of each said respective valves, each of the components (A, B) of the settable compound flows toward said mixing element (21, 154) and said first tube (31, 152) from respective said pressurized component chambers (20a, 20b, 134), with said second tube (33, 158) and relief chamber (25, 164) allowing air entrapped into the expandable chamber of said device and excess of the settable compound to flow thereto. - a plurality of pressurizable component chambers (20a, 20b, 134) for containing components (A, B) of a settable compound, each said component chamber (20a, 20b, 134) being pressurizable by a pressure mechanism (19a, 19b, 114, 116) at a chamber pressure level; - a mixing element (21, 154) connected to all of the component chambers (20a, 20b, 134) via respective valves (27a, 27b, 142) positioned therebetween, all said respective valves (27a, 27b, 142) being simultaneously openable; - a first tube (31, 152) for connecting the mixing element (21, 154) to an in-flow canal of said device, and being characterised by a relief chamber (25, 164) being in contact with said pressure mechanism for being depressurizable thereby; and a second tube (33, 158) for connecting the relief chamber (25, 164) to an out-flow canal of said device; wherein, upon simultaneous opening of each said respective valves, each of the components (A, B) of the settable compound flows toward said mixing element (21, 154) and said first tube (31, 152) from respective said pressurized component chambers (20a, 20b, 134), with said second tube (33, 158) and relief chamber (25, 164) allowing air entrapped into the expandable chamber of said device and excess of the settable compound to flow thereto.
An in vitro method of identifying a cell that is sensitive to umami taste stimuli, the method comprising: (a) detecting the expression of a T1R1 polypeptide and/or a nucleic acid encoding said T1R1 polypeptide by said cell wherein said T1R1 polypeptide (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 8 or a sequence having at least 90% sequence identity to SEQ ID NO: 8; or (ii) possesses at least 90% sequence identity to the T1R1 polypeptide of SEQ ID NO: 5; and (b) detecting the expression of a T1R3 polypeptide and/or a nucleic acid encoding said T1R3 polypeptide by said cell wherein said T1R3 polypeptide (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 9 or a sequence having at least 90% sequence identity to SEQ ID NO: 9; or (ii) possesses at least 90% sequence identity to the T1R3 polypeptide of SEQ ID NO: 7. (a) detecting the expression of a T1R1 polypeptide and/or a nucleic acid encoding said T1R1 polypeptide by said cell wherein said T1R1 polypeptide (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 8 or a sequence having at least 90% sequence identity to SEQ ID NO: 8; or (ii) possesses at least 90% sequence identity to the T1R1 polypeptide of SEQ ID NO: 5; and (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 8 or a sequence having at least 90% sequence identity to SEQ ID NO: 8; or (ii) possesses at least 90% sequence identity to the T1R1 polypeptide of SEQ ID NO: 5; (b) detecting the expression of a T1R3 polypeptide and/or a nucleic acid encoding said T1R3 polypeptide by said cell wherein said T1R3 polypeptide (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 9 or a sequence having at least 90% sequence identity to SEQ ID NO: 9; or (ii) possesses at least 90% sequence identity to the T1R3 polypeptide of SEQ ID NO: 7. (i) is encoded by a nucleic acid sequence comprising SEQ ID NO: 9 or a sequence having at least 90% sequence identity to SEQ ID NO: 9; or (ii) possesses at least 90% sequence identity to the T1R3 polypeptide of SEQ ID NO: 7.