mhurhangee/ep-ind-claims huggingface dataset:
Box structural arrangement for an aircraft comprising: - a first and second composite layers, - at least one spar web extended between opposite edges (2a, 2b, 3a, 3b) of the first and second composite layers (2, 3) along a longitudinal direction, and - a conduit piece extended between the opposite edges (2a, 2b, 3a, 3b) of the first and second composite layers (2, 3) and mounted on the spar web to provide a channeled box structural arrangement; characterized in that the conduit piece has a hollow section comprising at least one conduit dimensioned to receive pipes or harnesses and surrounded by a resilient material. - a first and second composite layers, - at least one spar web extended between opposite edges (2a, 2b, 3a, 3b) of the first and second composite layers (2, 3) along a longitudinal direction, and - a conduit piece extended between the opposite edges (2a, 2b, 3a, 3b) of the first and second composite layers (2, 3) and mounted on the spar web to provide a channeled box structural arrangement; characterized in that the conduit piece has a hollow section comprising at least one conduit dimensioned to receive pipes or harnesses and surrounded by a resilient material.
Gas grill comprising an open chamber with a heat source positioned above the zone supporting the food to be grilled, and a water tray catching drops, wherein the heat source is constituted by at least one burner of combustible gas, provided with a micro-perforated plate irradiating heat, characterized in that said at least one burner is configured to originate, when operating at the maximum power, temperatures that, in the area under the heat source and between two parallel planes spaced apart 1 cm from each other, the higher one being coincident with the bottom face(s) of said plate(s) of the at least one burner, range between 825 °C and 725 °C and, on a plane lower than said planes, parallel to them and separated apart 20 cm from said face(s), range between 105 °C and 180 °C, when the grill works empty, i.e., without food.
An air guide structure comprising: a bumper fascia extended in a vehicle width direction at a front end part of a vehicle and having an opening capable of collecting wind generated while the vehicle is running; a radiator arranged behind the bumper fascia; a bumper reinforce arranged between the bumper fascia and the radiator and forming an air passage in the vehicle width direction; a closed space defined with a rear shield plate arranged on a rear side, side shield plates (41, 75) forwardly extended from left and right sides of the rear shield plate, respectively, a bottom shield plate arranged at lower parts of the rear shield plate and side shield plates, a ceiling shield plate arranged at an upper part opposite to the bottom shield plate, and a front shield plate spaced away from and faced toward the rear shield plate and connected to the side shield plates (41, 75), bottom shield plate, and ceiling shield plate, the closed space communicating with the air passage of the bumper reinforce; and an inlet port arranged at least one on a face of the bumper reinforce opposite to the radiator and communicating with the air passage, characterized in that the closed space communicates with a primary opening of an inlet duct of an engine that is connected with the ceiling shield plate. a bumper fascia extended in a vehicle width direction at a front end part of a vehicle and having an opening capable of collecting wind generated while the vehicle is running; a radiator arranged behind the bumper fascia; a bumper reinforce arranged between the bumper fascia and the radiator and forming an air passage in the vehicle width direction; a closed space defined with a rear shield plate arranged on a rear side, side shield plates (41, 75) forwardly extended from left and right sides of the rear shield plate, respectively, a bottom shield plate arranged at lower parts of the rear shield plate and side shield plates, a ceiling shield plate arranged at an upper part opposite to the bottom shield plate, and a front shield plate spaced away from and faced toward the rear shield plate and connected to the side shield plates (41, 75), bottom shield plate, and ceiling shield plate, the closed space communicating with the air passage of the bumper reinforce; and a rear shield plate arranged on a rear side, side shield plates (41, 75) forwardly extended from left and right sides of the rear shield plate, respectively, a bottom shield plate arranged at lower parts of the rear shield plate and side shield plates, a ceiling shield plate arranged at an upper part opposite to the bottom shield plate, and a front shield plate spaced away from and faced toward the rear shield plate and connected to the side shield plates (41, 75), bottom shield plate, and ceiling shield plate, the closed space communicating with the air passage of the bumper reinforce; and an inlet port arranged at least one on a face of the bumper reinforce opposite to the radiator and communicating with the air passage, characterized in that the closed space communicates with a primary opening of an inlet duct of an engine that is connected with the ceiling shield plate.
A surgical instrument end effector, comprising: (a) a first jaw configured to receive a staple cartridge; (b) a second jaw comprising an anvil having a plurality of staple forming pockets, wherein the first and second jaws are operable to clamp and staple tissue positioned therebetween; and (c) a tip member (619, 719, 819, 919, 1019) movably disposed at a distal end of the anvil, wherein the tip member (619, 719, 819, 919, 1019) is configured to toggle relative to the anvil between a first discrete position and a second discrete position, wherein the tip member (619, 719, 819, 919, 1019) in the first discrete position is oriented angularly toward the first jaw, wherein the tip member (619, 719, 819, 919, 1019) in the second discrete position is oriented angularly away from the first discrete position. (a) a first jaw configured to receive a staple cartridge; (b) a second jaw comprising an anvil having a plurality of staple forming pockets, wherein the first and second jaws are operable to clamp and staple tissue positioned therebetween; and (c) a tip member (619, 719, 819, 919, 1019) movably disposed at a distal end of the anvil, wherein the tip member (619, 719, 819, 919, 1019) is configured to toggle relative to the anvil between a first discrete position and a second discrete position, wherein the tip member (619, 719, 819, 919, 1019) in the first discrete position is oriented angularly toward the first jaw, wherein the tip member (619, 719, 819, 919, 1019) in the second discrete position is oriented angularly away from the first discrete position.
A piezoelectric micro-blower, comprising: a vibrating plate including a piezoelectric element; an inner case to which a peripheral portion of the vibrating plate is fixed, a blower chamber being formed between the inner case and the vibrating plate; a first opening provided in a wall portion of the inner case, the, wall portion facing a central portion of the vibrating plate; an outer case that covers an outer periphery of the inner case without contact such that a predetermined gap is provided between the inner case and the outer case; a second opening provided in a wall portion of the outer case, the wall portion facing the first opening; a plurality of connecting portions that connect the inner case and the outer case to each other, the connecting portions substantially suppressing transmission of vibration from the inner case to the outer case; and a central space formed between the wall portion of the inner case that faces the vibrating plate and the wall portion of the outer case that faces the wall portion of the inner case, fluid introduced from the outside through the gap being guided into the central space, the central space communicating with the first opening and the second opening, wherein the vibrating plate is driven in a bending mode by applying a voltage with a predetermined frequency to the piezoelectric element, so that compressible fluid is sucked into the central space through the gap and is discharged through the second opening. a vibrating plate including a piezoelectric element; an inner case to which a peripheral portion of the vibrating plate is fixed, a blower chamber being formed between the inner case and the vibrating plate; a first opening provided in a wall portion of the inner case, the, wall portion facing a central portion of the vibrating plate; an outer case that covers an outer periphery of the inner case without contact such that a predetermined gap is provided between the inner case and the outer case; a second opening provided in a wall portion of the outer case, the wall portion facing the first opening; a plurality of connecting portions that connect the inner case and the outer case to each other, the connecting portions substantially suppressing transmission of vibration from the inner case to the outer case; and a central space formed between the wall portion of the inner case that faces the vibrating plate and the wall portion of the outer case that faces the wall portion of the inner case, fluid introduced from the outside through the gap being guided into the central space, the central space communicating with the first opening and the second opening, wherein the vibrating plate is driven in a bending mode by applying a voltage with a predetermined frequency to the piezoelectric element, so that compressible fluid is sucked into the central space through the gap and is discharged through the second opening.
A Cu-Ga alloy sputtering target having a composition comprising: as a metal component, Ga in a range of 20 at% or more and 45 at% or less; K and Na in a range of 0.1 at% or more and 2 at% or less in total; and a Cu balance including inevitable impurities, wherein complex fluorides containing Na, K, and F are dispersed in a matrix of a Cu-Ga alloy, a maximum diameter of an inscribed circle of the complex fluorides is 30 μm or less, and [Na]/([Na]+) is set to be in a range of 0.3 or more and 0.9 or less, [Na] and being atomic ratios of Na and K in the complex fluorides, respectively. complex fluorides containing Na, K, and F are dispersed in a matrix of a Cu-Ga alloy, a maximum diameter of an inscribed circle of the complex fluorides is 30 μm or less, and [Na]/([Na]+) is set to be in a range of 0.3 or more and 0.9 or less, [Na] and being atomic ratios of Na and K in the complex fluorides, respectively.
A delivery device for delivering an implantable leadless pacing device, the delivery device comprising: an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an intermediate tubular member including a lumen extending from a proximal end to a distal end thereof, the intermediate tubular member slidably disposed within the lumen of the outer tubular member, the intermediate tubular member including a distal holding section defining a cavity therein for receiving an implantable leadless pacing device; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the intermediate tubular member; a handle assembly including at least a first hub portion attached to a proximal end section of the outer tubular member, a second hub portion attached to a proximal end section of the intermediate tubular member, and a third hub portion attached to a proximal end section of the inner tubular member; a longitudinally extending groove having a proximal end and a distal end disposed in an outer surface of the second hub portion, wherein the distal end of the groove is circumferentially offset from the proximal end of the groove; and a multi-stage deployment mechanism disposed within the handle assembly; wherein the multi-stage deployment mechanism is configured to incrementally deploy an implantable leadless pacing device; wherein the multi-stage deployment mechanism includes an inwardly extending mating feature disposed in the third hub portion configured to be disposed within the groove. an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an intermediate tubular member including a lumen extending from a proximal end to a distal end thereof, the intermediate tubular member slidably disposed within the lumen of the outer tubular member, the intermediate tubular member including a distal holding section defining a cavity therein for receiving an implantable leadless pacing device; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the intermediate tubular member; a handle assembly including at least a first hub portion attached to a proximal end section of the outer tubular member, a second hub portion attached to a proximal end section of the intermediate tubular member, and a third hub portion attached to a proximal end section of the inner tubular member; a longitudinally extending groove having a proximal end and a distal end disposed in an outer surface of the second hub portion, wherein the distal end of the groove is circumferentially offset from the proximal end of the groove; and a multi-stage deployment mechanism disposed within the handle assembly; wherein the multi-stage deployment mechanism is configured to incrementally deploy an implantable leadless pacing device; wherein the multi-stage deployment mechanism includes an inwardly extending mating feature disposed in the third hub portion configured to be disposed within the groove.
A mold for blow molding a container from a preform, said container comprising a wall portion and a base including a high standing ring and a central outwardly-inclined invertible diaphragm, said mold comprising sidewalls (34A, 34B) forming a counter print of the wall portion of the container and a mold base having an upper surface defining a counter print of the container base, wherein the upper surface includes: - an annular peripheral face corresponding to an annular support flange of the container base, - a frusto-conical outer face corresponding to an inner portion of the high standing ring, said outer face protruding upwardly with a draft angle from an inner edge of the peripheral annular face up to a sharp apex, - a frusto-conical downwardly inclined inner face corresponding to the invertible diaphragm. characterized in that - the annular peripheral face is in the shape of a frustum of a cone and shows an inward inclination in a transversal section - wherein the peripheral face defines, with respect of a plane perpendicular to a mold base axis, an angle comprised between 1° and 10° - the outer face and the inner face of the upper surface together define at the apex an angle comprised between 50° and 70°. - an annular peripheral face corresponding to an annular support flange of the container base, - a frusto-conical outer face corresponding to an inner portion of the high standing ring, said outer face protruding upwardly with a draft angle from an inner edge of the peripheral annular face up to a sharp apex, - a frusto-conical downwardly inclined inner face corresponding to the invertible diaphragm. characterized in that - the annular peripheral face is in the shape of a frustum of a cone and shows an inward inclination in a transversal section - wherein the peripheral face defines, with respect of a plane perpendicular to a mold base axis, an angle comprised between 1° and 10° - the outer face and the inner face of the upper surface together define at the apex an angle comprised between 50° and 70°.
A method for configuring uplink Semi-Persistent Scheduling, SPS, comprising: determining, by a terminal, SPS configuration assistance information; transmitting, by the terminal, the SPS configuration assistance information to a network side device; receiving, by the terminal, uplink SPS information configured by the network side device according to the SPS configuration assistance information; and characterized in that determining, by the terminal, the SPS configuration assistance information comprises: determining an uplink SPS resource start position desired by the terminal in a time domain and a part or all of following information as the SPS configuration assistance information: an uplink SPS resource configuration periodicity desired by the terminal; data packet size indication information; and service type indication information. determining, by a terminal, SPS configuration assistance information; transmitting, by the terminal, the SPS configuration assistance information to a network side device; receiving, by the terminal, uplink SPS information configured by the network side device according to the SPS configuration assistance information; and characterized in that determining, by the terminal, the SPS configuration assistance information comprises: determining an uplink SPS resource start position desired by the terminal in a time domain and a part or all of following information as the SPS configuration assistance information: an uplink SPS resource configuration periodicity desired by the terminal; data packet size indication information; and service type indication information. an uplink SPS resource configuration periodicity desired by the terminal; data packet size indication information; and service type indication information.
A Brillouin optical distributed sensing method, using a distributed sensor with a polarization maintaining sensing optical fiber having two birefringent axes, the method comprising the steps of: - using optical coupling means (19, 21, 22) connected to a first end of said sensing optical fiber, (i) transferring into said sensing optical fiber at least one linearly polarized first optical probe wave aligned with a first birefringent axis and one linearly polarized optical pulsed pump wave aligned with a second birefringent axis, and (ii) transferring optical waves emerging from said sensing optical fiber toward detection means, - using a light reflecting means connected to a second end of the sensing optical fiber, reflecting the optical waves and shifting the direction of polarization of the reflected optical waves relative to the incident optical waves from one birefringent axis to the other. the method being characterized in that it further comprises the steps of: - relatively positioning in frequency the first optical probe wave and the optical pulsed pump wave so as to generate into the sensing optical fiber a first stimulated Brillouin scattering interaction between the reflected optical probe wave and the incident optical pulsed pump wave, and a second stimulated Brillouin scattering interaction between the incident optical probe wave and the reflected optical pulsed pump wave, - deducing distributed temperature and distributed strain information along the sensing optical fiber using said first stimulated Brillouin scattering interaction and said second stimulated Brillouin scattering interaction. - using optical coupling means (19, 21, 22) connected to a first end of said sensing optical fiber, (i) transferring into said sensing optical fiber at least one linearly polarized first optical probe wave aligned with a first birefringent axis and one linearly polarized optical pulsed pump wave aligned with a second birefringent axis, and (ii) transferring optical waves emerging from said sensing optical fiber toward detection means, - using a light reflecting means connected to a second end of the sensing optical fiber, reflecting the optical waves and shifting the direction of polarization of the reflected optical waves relative to the incident optical waves from one birefringent axis to the other. - relatively positioning in frequency the first optical probe wave and the optical pulsed pump wave so as to generate into the sensing optical fiber a first stimulated Brillouin scattering interaction between the reflected optical probe wave and the incident optical pulsed pump wave, and a second stimulated Brillouin scattering interaction between the incident optical probe wave and the reflected optical pulsed pump wave, - deducing distributed temperature and distributed strain information along the sensing optical fiber using said first stimulated Brillouin scattering interaction and said second stimulated Brillouin scattering interaction.
A control system for a flush toilet including a water delivery device for delivering a source of flush water to a bowl the flush control system comprising: a controller operative to control the toilet through a flush sequence in a first mode and a second mode such that in the first mode the controller operates the water delivery device to deliver a first predetermined amount of water to the bowl and in the second mode the controller operates the water delivery device to deliver a user adjustable amount of water to the bowl; and a user interface in communication with the controller for selecting between the first mode and the second mode, wherein the user interface cooperater with the controller to provide an add water function, that adds water to the bowl prior to the initiation of a flush sequence, wherein the user interface includes at least one manually operated element for selecting from the first mode and the second mode, and wherein the at least one manually operated element is at least one button characterized in that the at least one button operated is depressed at least a predetermined amount of time to select the second mode, wherein a duration of time that the at least one button is depressed operates to adjust the amount of water delivered to the bowl, and wherein the controller is automatically reprogrammed in response to the duration of time that the at least one button is depressed in the second mode to correspondingly adjust the predetermined amount of water delivered to the bowl in the first mode. a controller operative to control the toilet through a flush sequence in a first mode and a second mode such that in the first mode the controller operates the water delivery device to deliver a first predetermined amount of water to the bowl and in the second mode the controller operates the water delivery device to deliver a user adjustable amount of water to the bowl; and a user interface in communication with the controller for selecting between the first mode and the second mode, wherein the user interface cooperater with the controller to provide an add water function, that adds water to the bowl prior to the initiation of a flush sequence, wherein the user interface includes at least one manually operated element for selecting from the first mode and the second mode, and wherein the at least one manually operated element is at least one button the at least one button operated is depressed at least a predetermined amount of time to select the second mode, wherein a duration of time that the at least one button is depressed operates to adjust the amount of water delivered to the bowl, and wherein the controller is automatically reprogrammed in response to the duration of time that the at least one button is depressed in the second mode to correspondingly adjust the predetermined amount of water delivered to the bowl in the first mode.
Watch comprising a case containing a plate and an electronic module powered by a battery, a conductor (6, 7) electrically connecting the battery to the electronic module and a clamping device capable of ensuring an electrical connection between the battery and the conductor (6, 7), characterized in that the clamping device includes a magnet (9, 10, 11, 12, 13), said magnet ensuring electrical conduction between the magnet and the conductor (6; 7).