mhurhangee/ep-ind-claims huggingface dataset:
A case sealing device that conveys a cardboard box and simultaneously closes a flap group provided on edges of opening of the cardboard box, the case sealing device comprising: a folding member that contacts a flap (Zfal, Zfar) of the flap group that extends along a conveyance direction of the cardboard box and folds the flap (Zfal, Zfar); characterized in that the case sealing device further comprises: a drive unit that moves the folding member; and a control unit that controls the drive unit, wherein in operation of folding the flap (Zfal, Zfar), a longitudinal direction of the folding member is inclined with respect to the conveyance direction such that the folding member contacts a front edge of the flap (Zfal,Zfar) in the conveyance direction before other portions of the flap (Zfal,Zfar). a folding member that contacts a flap (Zfal, Zfar) of the flap group that extends along a conveyance direction of the cardboard box and folds the flap (Zfal, Zfar); characterized in that the case sealing device further comprises: a drive unit that moves the folding member; and a control unit that controls the drive unit, a drive unit that moves the folding member; and a control unit that controls the drive unit, wherein in operation of folding the flap (Zfal, Zfar), a longitudinal direction of the folding member is inclined with respect to the conveyance direction such that the folding member contacts a front edge of the flap (Zfal,Zfar) in the conveyance direction before other portions of the flap (Zfal,Zfar).
A resonance noise reduction tire having a sound absorbing material which is mounted therein using an adhesive so as to be adhered to an inner liner formed inside the tire in a circumferential direction thereof, wherein the sound absorbing material is adhered to the inner liner in the circumferential direction thereof, and the sound absorbing material is configured so that opposite ends (3a, 3b) thereof are adhered with being separated at a predetermined interval so as not to be abutted to each other, the opposite ends (3a, 3b) of the sound absorbing material are formed so that a separated interval of an adhered end side which is formed on an outer side in the radial direction of the tire with being adhered to the inner liner is larger than a separated interval of a free end side which is formed on an inner side in a radial direction of the tire, characterised in that the sound absorbing material is formed so that the opposite ends (3a, 3b) thereof on the free end side are separated at an interval of 10 to 30 mm, and the opposite ends (3a, 3b) thereof on the adhered end side are separated at an interval of 20 to 50 mm, and the opposite ends (3a, 3b) of the sound absorbing material have inclined faces formed in an inversed V shape so that an interval therebetween is gradually increased from the free end side formed at the narrow separated interval toward the adhered end side formed at the wide separated interval.
Solar tracker comprising at least: • a mobile device comprising at least: ∘ a table extending longitudinally in a main direction of extension and comprising at least one device for collecting solar energy; ∘ a support structure extending longitudinally over a length L in the main direction of extension and supporting the table and comprising a first end and a second end; ∘ a first support arch and a second support arch configured to support the support structure; • a first ground support and a second ground support configured to respectively support the first support arch and the second support arch; • a kinematic drive device configured to drive the mobile device in rotation relative to the first ground support and to the second ground support; the solar tracker being characterized in that the support structure is a beam in the form of a rigid lattice structure comprising spars (1121, 1122, 1123) connected by cross members and tie rods. • a mobile device comprising at least: ∘ a table extending longitudinally in a main direction of extension and comprising at least one device for collecting solar energy; ∘ a support structure extending longitudinally over a length L in the main direction of extension and supporting the table and comprising a first end and a second end; ∘ a first support arch and a second support arch configured to support the support structure; ∘ a table extending longitudinally in a main direction of extension and comprising at least one device for collecting solar energy; ∘ a support structure extending longitudinally over a length L in the main direction of extension and supporting the table and comprising a first end and a second end; ∘ a first support arch and a second support arch configured to support the support structure; • a first ground support and a second ground support configured to respectively support the first support arch and the second support arch; • a kinematic drive device configured to drive the mobile device in rotation relative to the first ground support and to the second ground support; the solar tracker being characterized in that the support structure is a beam in the form of a rigid lattice structure comprising spars (1121, 1122, 1123) connected by cross members and tie rods.
A continuous casting apparatus for steel comprising: a casting mold for casting a molten steel, having a pair of long side walls and a pair of short side walls; a submerged entry nozzle which discharges the molten steel into the casting mold; an electromagnetic stirring device arranged along each of the long side walls to stir an upper part of the molten steel within the casting mold; and an electromagnetic brake device arranged below the electromagnetic stirring device to impart a direct current magnetic field, along each of the short side walls which has a flux density distribution which is uniform in a casting mold width direction along each of the long side walls in a casting mold thickness direction, wherein a curved portion which is curved toward the electromagnetic stirring device is formed at least at a position where the curved portion faces the submerged entry nozzle on each of the long side walls; characterized in that the horizontal distance between a top of the curved portion and the submerged entry nozzle in plan view is equal to or more than 35 mm and less than 50 mm. a casting mold for casting a molten steel, having a pair of long side walls and a pair of short side walls; a submerged entry nozzle which discharges the molten steel into the casting mold; an electromagnetic stirring device arranged along each of the long side walls to stir an upper part of the molten steel within the casting mold; and an electromagnetic brake device arranged below the electromagnetic stirring device to impart a direct current magnetic field, along each of the short side walls which has a flux density distribution which is uniform in a casting mold width direction along each of the long side walls in a casting mold thickness direction, wherein a curved portion which is curved toward the electromagnetic stirring device is formed at least at a position where the curved portion faces the submerged entry nozzle on each of the long side walls; characterized in that the horizontal distance between a top of the curved portion and the submerged entry nozzle in plan view is equal to or more than 35 mm and less than 50 mm.
A method of flushing a central heating system having a heat exchanger, a pump, at least one radiator and at least one circuit of pipe work, comprising the steps of a. connecting a magnetic filter across two points in the at least one circuit of pipe work, the method is characterized by the steps of: b. draining or substantially draining the central heating system of system water, c. partially filling the central heating system with system water, d. operating the pump to cause circulation of system water around the central heating system and through the filter, e. applying vibration to the or each radiator (22, 24, 26), f. removing any debris collected at the filter, and g. re-filling the central heating system with system water to an operational level. a. connecting a magnetic filter across two points in the at least one circuit of pipe work, b. draining or substantially draining the central heating system of system water, c. partially filling the central heating system with system water, d. operating the pump to cause circulation of system water around the central heating system and through the filter, e. applying vibration to the or each radiator (22, 24, 26), f. removing any debris collected at the filter, and g. re-filling the central heating system with system water to an operational level.
A method for estimating a distance of a moving object from a camera, wherein the camera is mounted on a chassis of a vehicle and the moving object is another vehicle or a pedestrian, comprising the steps of: (a) capturing while the vehicle is moving images of a surrounding by the camera, wherein features in the captured images are detected and matched in each captured image to generate feature tracks between positions of corresponding features in the captured images, wherein the tracked features are segmented into features belonging to moving objects and into features belonging to static objects, wherein the segmented features belonging to moving objects are clustered and a convex hull around the segmented features of each cluster is calculated; (b) processing features of captured images to determine a range of azimuth bearings to a moving object on the basis of the calculated convex hull around a cluster of segmented features belonging to the moving object within the captured images; and (c) estimating a distance of the moving object from the camera on the basis of determined ground features belonging to a ground plane along the determined bearing of the object which are not occluded by the moving object, wherein from the determined ground features not occluded by the moving object, the ground feature located in the bearing range in front of the moving object and having a maximum distance to the camera is selected, and the distance of the moving object from the camera is estimated according to the maximum distance. (a) capturing while the vehicle is moving images of a surrounding by the camera, wherein features in the captured images are detected and matched in each captured image to generate feature tracks between positions of corresponding features in the captured images, wherein the tracked features are segmented into features belonging to moving objects and into features belonging to static objects, wherein the segmented features belonging to moving objects are clustered and a convex hull around the segmented features of each cluster is calculated; (b) processing features of captured images to determine a range of azimuth bearings to a moving object on the basis of the calculated convex hull around a cluster of segmented features belonging to the moving object within the captured images; and (c) estimating a distance of the moving object from the camera on the basis of determined ground features belonging to a ground plane along the determined bearing of the object which are not occluded by the moving object, wherein from the determined ground features not occluded by the moving object, the ground feature located in the bearing range in front of the moving object and having a maximum distance to the camera is selected, and the distance of the moving object from the camera is estimated according to the maximum distance.
SHOCK-ABSORBING COUPLING FOR FLOATING STRUCTURES, which includes two mounting bodies to be respectively mounted on components facing each other of adjoining frames of a structure, and at least one flexible body such as a tyre placed between said mounting bodies, wherein it includes first gripping members respectively connected, facing each other at the same level, in each said mounting body and second gripping members respectively mounted and vertically slidable in each said mounting body above and overlapping said first gripping members; said first and second gripping members facing each other and able to hold said tyres, in horizontal position, which they hold in two diametrically opposite regions, so that each tyre in the structure can bend, stretch or twist on their central region; wherein said first and second gripping members are made up of respective plates with holes (8, 16), provided with retention walls and in their front edge, running vertically opposite in one and other members (7, 15) and ending up in respective horizontal retention flanges and folded inwards, said first gripping members also comprising lower ribs capable of collaborating in their connection with support walls in the mounting bodies and said second gripping members comprising fixing walls with holes provided to correspondingly face the elongated holes in said support walls of the mounting bodies; and wherein at least one of said gripping members (7, 15) is provided with at least one retention wall with its contour adapted to the external periphery of the tyre to restrain its expansion.
Diverting unit for a conveying installation for the pneumatic conveyance of bulk material, in particular powder material, as fluidized conveyed-material filaments, the top side of which forms a conveyed-material surface, through closed pipelines (14, 15), wherein the diverting unit has a working chamber with side walls, a base and a ceiling, and a feed pipe connector is connected to a side wall, and a discharge pipe connector is arranged geodetically above the feed pipe connector on the ceiling, which discharge pipe connector is oriented transversely with respect to the feed pipe connector and is designed for a discharge pipe which leads away vertically, wherein, in the working chamber, there is provided a dedicated fluidizing plate with a dedicated fluidizing gas feed, characterized in that the dedicated fluidizing plate is controllable independently of a fluidization in the inflow pipe, and, in the working chamber, at the discharge pipe connector, there is arranged an immersion pipe which projects vertically into the working chamber from above and the length of which is dimensioned such that its mouth is immersed in the fluidized conveyed-material filaments below the conveyed-material surface.
A combiner positioning system for a head-up display, the system comprising: - a combiner for the head-up display, wherein the combiner is movable between a stowed position and a display position; - positioning means built to move the combiner from the stowed position into the display position; and - actuation means built to disengage locking means; wherein - the positioning means comprise spring means built to move the combiner from the stowed position into the display position by means of a spring force in case the locking means are disengaged; wherein the combiner is built to be moved manually from the display position into the stowed position, wherein in the stowed position the combiner is built to lock into place by engaging the locking means, characterized in that the positioning means comprise a linear guidance with two gear racks, one at each lateral side of the combiner, which combiner comprises a carrier in its lower section, which carrier is attached to a support shaft connecting two gear wheels arranged at the ends of the support shaft and built to engage with the gear racks to move the combiner along a length axis of the linear guidance, wherein the positioning means comprise a damper attached at the support shaft and built to damp the movement of the spring means. - a combiner for the head-up display, wherein the combiner is movable between a stowed position and a display position; - positioning means built to move the combiner from the stowed position into the display position; and - actuation means built to disengage locking means; wherein - the positioning means comprise spring means built to move the combiner from the stowed position into the display position by means of a spring force in case the locking means are disengaged; wherein the combiner is built to be moved manually from the display position into the stowed position, wherein in the stowed position the combiner is built to lock into place by engaging the locking means, characterized in that the positioning means comprise a linear guidance with two gear racks, one at each lateral side of the combiner, which combiner comprises a carrier in its lower section, which carrier is attached to a support shaft connecting two gear wheels arranged at the ends of the support shaft and built to engage with the gear racks to move the combiner along a length axis of the linear guidance, wherein the positioning means comprise a damper attached at the support shaft and built to damp the movement of the spring means.
A gas turbine engine defining a longitudinal direction, a radial direction, and a circumferential direction, and an axial centerline defined along the longitudinal direction, the gas turbine engine comprising: an electric machine comprising: a rotor assembly comprising a plurality of magnet carriers arranged along the circumferential direction, wherein each magnet carrier includes a rotor magnet coupled to the magnet carrier, and further wherein the rotor assembly comprises an outer ring radially outward of and surrounding the plurality of magnet carriers along the circumferential direction, the outer ring defining a unitary structure, characterized in that in each pair of adjacent magnet carriers, a carrier gap is defined between the magnet carriers of said pair of the magnet carriers, along the circumferential direction to disable transfer of hoop stresses through the plurality of the magnet carriers. a rotor assembly comprising a plurality of magnet carriers arranged along the circumferential direction, wherein each magnet carrier includes a rotor magnet coupled to the magnet carrier, and further wherein the rotor assembly comprises an outer ring radially outward of and surrounding the plurality of magnet carriers along the circumferential direction, the outer ring defining a unitary structure, characterized in that in each pair of adjacent magnet carriers, a carrier gap is defined between the magnet carriers of said pair of the magnet carriers, along the circumferential direction to disable transfer of hoop stresses through the plurality of the magnet carriers.
A vascular occlusion treatment system, comprising: an ultrasound imaging system having an imaging control circuit communicatively coupled to each of an ultrasound imaging probe and a display screen, the ultrasound imaging system configured to generate an ultrasound image for display on the display screen from ultrasound imaging data collected from an ultrasound imaging space; and an ultrasonic vibration system having an ultrasonic generator operatively coupled to an ultrasonic catheter, the ultrasonic catheter having a corewire with a distal tip,) the ultrasonic generator having a generator control circuit configured to alternatingly switch between an ultrasonic work frequency and a tracking frequency, the generator control circuit being communicatively coupled to the imaging control circuit, the generator control circuit configured to execute program instructions to send a notification to the imaging control circuit when the generator control circuit has switched from the ultrasonic work frequency to the tracking frequency; the imaging control circuit configured to respond to the notification by executing program instructions to: initiate a search in the ultrasound imaging space to locate the distal tip of the corewire of the ultrasonic catheter that is vibrating at the tracking frequency; and indicate a location of the distal tip in the ultrasound image displayed on the display screen. an ultrasound imaging system having an imaging control circuit communicatively coupled to each of an ultrasound imaging probe and a display screen, the ultrasound imaging system configured to generate an ultrasound image for display on the display screen from ultrasound imaging data collected from an ultrasound imaging space; and an ultrasonic vibration system having an ultrasonic generator operatively coupled to an ultrasonic catheter, the ultrasonic catheter having a corewire with a distal tip,) the ultrasonic generator having a generator control circuit configured to alternatingly switch between an ultrasonic work frequency and a tracking frequency, the generator control circuit being communicatively coupled to the imaging control circuit, the generator control circuit configured to execute program instructions to send a notification to the imaging control circuit when the generator control circuit has switched from the ultrasonic work frequency to the tracking frequency; the imaging control circuit configured to respond to the notification by executing program instructions to: initiate a search in the ultrasound imaging space to locate the distal tip of the corewire of the ultrasonic catheter that is vibrating at the tracking frequency; and indicate a location of the distal tip in the ultrasound image displayed on the display screen. initiate a search in the ultrasound imaging space to locate the distal tip of the corewire of the ultrasonic catheter that is vibrating at the tracking frequency; and indicate a location of the distal tip in the ultrasound image displayed on the display screen.