mhurhangee/ep-ind-claims huggingface dataset:
A gate device, comprising a base plate, a gate, and a power system configured to drive the gate to slide, the base plate having an opening, the gate being arranged on an inner side of the base plate, a rack being provided on an inner side of the gate in an opening-closing direction, and the gate being driven by the power system to slide to open or close the opening, wherein the power system comprises: a power motor, wherein the power motor has a power output gear and is a bi-directional motor; a first transmission gear, wherein the first transmission gear is assembled with the power output gear in a meshing manner, and configured to drive a second transmission gear by a first transmission shaft, and the second transmission gear is assembled with the rack in the meshing manner; and a third transmission gear, wherein the third transmission gear is assembled with the first transmission gear in the meshing manner, and is configured to drive a sleeve component by a screw rod to make a reciprocation movement in a direction perpendicular to a sliding direction of the gate on a plane in parallel with the gate, and the reciprocation movement of the sleeve component is configured to lock and unlock the gate. a power motor, wherein the power motor has a power output gear and is a bi-directional motor; a first transmission gear, wherein the first transmission gear is assembled with the power output gear in a meshing manner, and configured to drive a second transmission gear by a first transmission shaft, and the second transmission gear is assembled with the rack in the meshing manner; and a third transmission gear, wherein the third transmission gear is assembled with the first transmission gear in the meshing manner, and is configured to drive a sleeve component by a screw rod to make a reciprocation movement in a direction perpendicular to a sliding direction of the gate on a plane in parallel with the gate, and the reciprocation movement of the sleeve component is configured to lock and unlock the gate.
A multilayer structure comprising a polyolefin layer which is Layer A, a tie layer which is Layer B, and a barrier layer which is Layer C, each layer having opposing facial surfaces, wherein: Layer A has a top facial surface and a bottom facial surface and comprises polypropylene; Layer B has a top facial surface and a bottom facial surface and comprises: a) a crystalline block copolymer composite comprising: i) a crystalline ethylene based polymer comprising at least 90 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP); and iii) a block copolymer comprising (a) a crystalline ethylene block comprising at least 90 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); b) maleic anhydride grafted polyethylene or maleic anhydride grafted polypropylene; and, c) low density polyethylene; and, Layer C comprises a metal foil and has a top facial surface and a bottom facial surface, the top facial surface of Layer C being in adhering contact with the bottom facial surface of Layer B, and the top facial surface of Layer B being in adhering contact with the bottom facial surface of Layer A; wherein Layer B comprises 40 to 75 weight percent CBC based on the total weight of Layer B, 10 to 35 weight percent maleic anhydride grafted polyethylene based on the total weight of Layer B, and 15 to 40 weight percent low density polyethylene based on the total weight of Layer B. Layer A has a top facial surface and a bottom facial surface and comprises polypropylene; Layer B has a top facial surface and a bottom facial surface and comprises: a) a crystalline block copolymer composite comprising: i) a crystalline ethylene based polymer comprising at least 90 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP); and iii) a block copolymer comprising (a) a crystalline ethylene block comprising at least 90 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); b) maleic anhydride grafted polyethylene or maleic anhydride grafted polypropylene; and, c) low density polyethylene; and, a) a crystalline block copolymer composite comprising: i) a crystalline ethylene based polymer comprising at least 90 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP); and iii) a block copolymer comprising (a) a crystalline ethylene block comprising at least 90 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); i) a crystalline ethylene based polymer comprising at least 90 mol % polymerized ethylene; ii) an alpha-olefin-based crystalline polymer (CAOP); and iii) a block copolymer comprising (a) a crystalline ethylene block comprising at least 90 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); b) maleic anhydride grafted polyethylene or maleic anhydride grafted polypropylene; and, c) low density polyethylene; and, Layer C comprises a metal foil and has a top facial surface and a bottom facial surface, the top facial surface of Layer C being in adhering contact with the bottom facial surface of Layer B, and the top facial surface of Layer B being in adhering contact with the bottom facial surface of Layer A;
A thrust reverser system, comprising: an outer cylinder; a mid-cylinder within the outer cylinder, the mid-cylinder mated with the outer cylinder at a mid-outer threaded interface configured to transform axial translation of the outer cylinder into rotational motion of the mid-cylinder along an axis; an inner cylinder within the mid-cylinder, the inner cylinder mated with the mid-cylinder at a mid-inner threaded interface configured to transform the rotational movement of the mid-cylinder into axial translation of the inner cylinder along the axis; a fixed structure, wherein the mid-cylinder is attached to the fixed structure; a first movable component of the thrust reverser, wherein the outer cylinder is attached to the first movable component; and a second movable component of the thrust reverser operable to move relative to the first movable component, wherein the inner cylinder is attached to the second movable component; characterised in that: a first one of the mid-outer threaded interface and the mid-inner threaded interface comprises a thread (52, 66) configured with a first thread portion and a second thread portion, the first thread portion is disposed at a first angle relative to the axis, and the second thread portion is disposed at a second angle relative to the axis that is different from the first angle. an outer cylinder; a mid-cylinder within the outer cylinder, the mid-cylinder mated with the outer cylinder at a mid-outer threaded interface configured to transform axial translation of the outer cylinder into rotational motion of the mid-cylinder along an axis; an inner cylinder within the mid-cylinder, the inner cylinder mated with the mid-cylinder at a mid-inner threaded interface configured to transform the rotational movement of the mid-cylinder into axial translation of the inner cylinder along the axis; a fixed structure, wherein the mid-cylinder is attached to the fixed structure; a first movable component of the thrust reverser, wherein the outer cylinder is attached to the first movable component; and a second movable component of the thrust reverser operable to move relative to the first movable component, wherein the inner cylinder is attached to the second movable component; characterised in that: a first one of the mid-outer threaded interface and the mid-inner threaded interface comprises a thread (52, 66) configured with a first thread portion and a second thread portion, the first thread portion is disposed at a first angle relative to the axis, and the second thread portion is disposed at a second angle relative to the axis that is different from the first angle.
Method for filling nozzles of a dispensing system of a test system comprising the dispensing system and a microfluidic device, wherein - the microfluidic device comprises at least one sample receiving opening and a microfluidic passage in which a measuring region is disposed, and the sample receiving opening is connected to the microfluidic passage, and - the dispensing system comprises at least one container with at least one reservoir containing a solution, wherein the container is connected via a fluid line to at least one micro-pump, following which at least one nozzle is provided which is configured for dispensing the solution into the sample receiving opening of the microfluidic device, comprising at least the following steps: - transporting the solution from the container via the nozzle of the dispensing system to the sample receiving opening of the microfluidic device by means of the micro-pump, - transporting the solution further into the measuring region of the microfluidic passage of the microfluidic device, - measuring a light signal in the measuring region of the microfluidic device using at least one photosensitive sensor with a plurality of photodetectors, and - deactivating the micro-pump when the light signal is detected and/or is modified, which indicates that the solution has reached the measuring region of the microfluidic passage and thus is also present in the nozzle of the dispensing system. - the microfluidic device comprises at least one sample receiving opening and a microfluidic passage in which a measuring region is disposed, and the sample receiving opening is connected to the microfluidic passage, and - the dispensing system comprises at least one container with at least one reservoir containing a solution, wherein the container is connected via a fluid line to at least one micro-pump, following which at least one nozzle is provided which is configured for dispensing the solution into the sample receiving opening of the microfluidic device, - transporting the solution from the container via the nozzle of the dispensing system to the sample receiving opening of the microfluidic device by means of the micro-pump, - transporting the solution further into the measuring region of the microfluidic passage of the microfluidic device, - measuring a light signal in the measuring region of the microfluidic device using at least one photosensitive sensor with a plurality of photodetectors, and - deactivating the micro-pump when the light signal is detected and/or is modified, which indicates that the solution has reached the measuring region of the microfluidic passage and thus is also present in the nozzle of the dispensing system.
A roller tube that is elongated between opposed first and second ends (113, 115) along an axis of rotation, the roller tube configured to be operably attached to a flexible material, the roller tube comprising: a first tube that is fabricated such that a first portion of the roller tube exhibits a first material stiffness and second and third portions of the roller tube exhibit a second material stiffness that is different from the first material stiffness, the first portion has a first tensile modulus and the second and third portions have a second tensile modulus, wherein the second portion extends from the first end of the roller tube, the third portion extends from the second end of the roller tube, and the first portion extends between the second and third portions, and wherein layers of a first material in the first portion of the roller tube are staggered with layers of a second material in the second portion of the roller tube at a first interface of the first and second portions, and wherein layers of the first material in the first portion of the roller tube are staggered with layers of the second material in the third portion of the roller tube at a second interface of the first and third portions. a first tube that is fabricated such that a first portion of the roller tube exhibits a first material stiffness and second and third portions of the roller tube exhibit a second material stiffness that is different from the first material stiffness, the first portion has a first tensile modulus and the second and third portions have a second tensile modulus, wherein the second portion extends from the first end of the roller tube, the third portion extends from the second end of the roller tube, and the first portion extends between the second and third portions, and wherein layers of a first material in the first portion of the roller tube are staggered with layers of a second material in the second portion of the roller tube at a first interface of the first and second portions, and wherein layers of the first material in the first portion of the roller tube are staggered with layers of the second material in the third portion of the roller tube at a second interface of the first and third portions.
A device for automatic reinforcement of concrete structures, which has: - a manipulator with the means for precisely moving it in space, - a printhead located on the endpiece of the manipulator, - a reinforcement fibre storage unit in the form of a reel, located on the printhead, wherein the reinforcement fibre storage unit is connected to the means for laying the fibre on the surface of the structure being reinforced, where said means have drive rollers and a cutting knife, characterized in that there are guide rollers placed between the reinforcement fibre storage unit and the drive rollers, which guide rollers preferably have rotation axes perpendicular to the rotation axes of the drive rollers, and in that it has a saturator positioned so that the reinforcement fibre first passes next to the cutting knife and then through the saturator, as well as it contains two containers with resin and hardener connected to a hardener mixing chamber and pumps assembly, wherein the outlet of the hardener mixing chamber is directed towards the saturator, wherein furthermore it has a glue tank, a glue pump, and a nozzle of the gluing assembly, wherein the nozzle of the gluing assembly faces the same direction as the outlet of the saturator. - a manipulator with the means for precisely moving it in space, - a printhead located on the endpiece of the manipulator, - a reinforcement fibre storage unit in the form of a reel, located on the printhead, there are guide rollers placed between the reinforcement fibre storage unit and the drive rollers, which guide rollers preferably have rotation axes perpendicular to the rotation axes of the drive rollers, and in that it has a saturator positioned so that the reinforcement fibre first passes next to the cutting knife and then through the saturator, as well as it contains two containers with resin and hardener connected to a hardener mixing chamber and pumps assembly, wherein the outlet of the hardener mixing chamber is directed towards the saturator, wherein furthermore it has a glue tank, a glue pump, and a nozzle of the gluing assembly, wherein the nozzle of the gluing assembly faces the same direction as the outlet of the saturator.
A wire electrical discharge machine that feeds a wire electrode to perform auto wire feeding of the wire electrode, comprising a transport mechanism configured to feed the wire electrode along a travelling route; a failure detector configured to be able to detect a failure of the auto wire feeding; a position detector configured to be able to detect a position of a tip of the wire electrode on the travelling route; a storage medium configured to store failure evaluation reference data of the auto wire feeding for a plurality of divisional regions of the travelling route; and, a control device configured to identify the position of the tip of the wire electrode when a failure of the auto wire feeding occurs, based on detection signals from the failure detector and the position detector and determine whether to perform or stop retry of the auto wire feeding, based on the position of the tip and the failure evaluation reference data for every divisional region, wherein the control device is configured to count the number of failures in the auto wire feeding actually arising in each individual divisional region, based on the identified position of the tip and the divisional region obtained from the storage medium, the failure evaluation reference data for every divisional region is intended to include information on the multiple divisional regions and information on an additional value (Av) for each of divisional regions set in accordance with difficulty of the wire electrode to pass therethrough; characterized in that the control device is configured to calculate an cumulative upper limit value by successive addition of the additional values (Av) to an upper limit value (Uf) stored in the storage medium in order of the divisional regions, compare a cumulative failure count obtained by successive addition of the counts of failures counted for every divisional region with the cumulative upper limit value to determine whether to perform or stop retry of the auto wire feeding.
A printing cassette (10, 11, 10A-D) comprising: a print tape (11A, 12); an input part into which a drive force is configured to be inputted; an output part rotatable about a rotational axis parallel to a first direction and configured to output the drive force for conveying the print tape (11A, 12) to an outside; a transmission mechanism drivingly connected to the input part and the output part and configured to transmit the drive force inputted into the input part to the output part; and a case (35, 40) that houses therein at least a part (31-34, 32B, 32D-F, 36-39, 43) of the print tape (11A, 12), at least a part (31-34, 32B, 32D-F, 36-39, 43) of the input part, at least a part (31-34, 32B, 32D-F, 36-39, 43) of the output part, and at least part (31-34, 32B, 32D-F, 36-39, 43) of the transmission mechanism, wherein the case (35, 40) has: a first surface and a second surface constituting respective endfaces of the case (35, 40) in a second direction perpendicular to the first direction; and a third surface and a fourth surface constituting respective endfaces of the case (35, 40) in a third direction perpendicular to the first direction and the second direction, and wherein the output part is positioned between the first surface and the second surface and between the third surface and the fourth surface. a print tape (11A, 12); an input part into which a drive force is configured to be inputted; an output part rotatable about a rotational axis parallel to a first direction and configured to output the drive force for conveying the print tape (11A, 12) to an outside; a transmission mechanism drivingly connected to the input part and the output part and configured to transmit the drive force inputted into the input part to the output part; and a case (35, 40) that houses therein at least a part (31-34, 32B, 32D-F, 36-39, 43) of the print tape (11A, 12), at least a part (31-34, 32B, 32D-F, 36-39, 43) of the input part, at least a part (31-34, 32B, 32D-F, 36-39, 43) of the output part, and at least part (31-34, 32B, 32D-F, 36-39, 43) of the transmission mechanism, wherein the case (35, 40) has: a first surface and a second surface constituting respective endfaces of the case (35, 40) in a second direction perpendicular to the first direction; and a third surface and a fourth surface constituting respective endfaces of the case (35, 40) in a third direction perpendicular to the first direction and the second direction, and a first surface and a second surface constituting respective endfaces of the case (35, 40) in a second direction perpendicular to the first direction; and a third surface and a fourth surface constituting respective endfaces of the case (35, 40) in a third direction perpendicular to the first direction and the second direction, and wherein the output part is positioned between the first surface and the second surface and between the third surface and the fourth surface.
Method for operating a terminal in a wireless communication network, the terminal being adapted for dual connectivity, the method comprising determining a total configured maximum output power P CMAX of the terminal based on a synchronization level, the terminal being connected to a master network node via a master cell group, MCG, and to a secondary network node via a secondary cell group, SCG; characterised in that when a subframe p of the MCG overlaps with a subframe q of the SCG such that the first slot of subframe p overlaps with the first slot of subframe q, and subframe q leads in time compared to subframe p, subframe q is defined as reference subframe, and P CMAX for the reference subframe is determined considering the subframes p-1 and p of the MCG.
A dysphagia test device comprising: a current application unit configured to be attached to a target portion of a treated person in order to percutaneously apply current to a biological tissue of a neck including superior laryngeal nerve of the treated person; a control unit configured to control the current application unit such that percutaneous stimulation caused by an interference wave or a pseudo interference wave is applied to the biological tissue; an operation unit configured to adjust the current to be applied by the current application unit, to a sensory threshold at which the treated person becomes aware of the percutaneous stimulation; and a display unit configured to display index information based on the sensory threshold; wherein the operation unit includes a key for increasing or decreasing the current to be applied by the current application unit, the control unit increases or decreases the current to be applied by the current application unit, in accordance with an operation performed on the key, and the control unit starts counting time in response to an operation performed on the key, obtains, as the sensory threshold of the treated person, a value of the current being applied by the current application unit at a time point when the counted time has reached a predetermined threshold, and causes the display unit to display the index information on the basis of the obtained current value. a current application unit configured to be attached to a target portion of a treated person in order to percutaneously apply current to a biological tissue of a neck including superior laryngeal nerve of the treated person; a control unit configured to control the current application unit such that percutaneous stimulation caused by an interference wave or a pseudo interference wave is applied to the biological tissue; an operation unit configured to adjust the current to be applied by the current application unit, to a sensory threshold at which the treated person becomes aware of the percutaneous stimulation; and a display unit configured to display index information based on the sensory threshold; wherein the operation unit includes a key for increasing or decreasing the current to be applied by the current application unit, the control unit increases or decreases the current to be applied by the current application unit, in accordance with an operation performed on the key, and the control unit starts counting time in response to an operation performed on the key, obtains, as the sensory threshold of the treated person, a value of the current being applied by the current application unit at a time point when the counted time has reached a predetermined threshold, and causes the display unit to display the index information on the basis of the obtained current value.
Shielding structure for shielding an object against heat and/or sound, wherein the shielding structure comprises a metal sheet with an inner surface facing the object and an outer surface facing away from the object, characterized in that the inner surface of the sheet metal of the shielding structure is equipped with elements which are designed to deform themselves or also the sheet metal from a soft and thus acoustically more damping structure to a rigid structure when at least one predetermined temperature (θ h) is reached.