mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating article comprising: a first portion comprising a composite heat source (200, 300, 400, 500); a second portion adjacent to the first portion and comprising at least one of an aerosol generating material and a tobacco material; a third portion comprising a cooling material; and a fourth portion comprising a filter material, wherein the first portion, the second portion, the third portion, and the fourth portion are sequentially arranged along a longitudinal direction of the aerosol generating article, characterized in that the composite heat source (200, 300, 400, 500) comprises a combustible heat source (210, 310, 410, 510) and a combustible wick (220, 320, 420) inserted into the combustible heat source (210, 310, 410, 510). a first portion comprising a composite heat source (200, 300, 400, 500); a second portion adjacent to the first portion and comprising at least one of an aerosol generating material and a tobacco material; a third portion comprising a cooling material; and a fourth portion comprising a filter material, wherein the first portion, the second portion, the third portion, and the fourth portion are sequentially arranged along a longitudinal direction of the aerosol generating article, characterized in that the composite heat source (200, 300, 400, 500) comprises a combustible heat source (210, 310, 410, 510) and a combustible wick (220, 320, 420) inserted into the combustible heat source (210, 310, 410, 510).
A head mounted display comprising: a camera unit configured to detect a first route of a first moving object and a second route of a second moving object in front of the HMD; an eye gaze detection unit configured to detect a third route along which an eye gaze of a user moves; and a controller configured to perform an eye gaze calibration based on a route of a reference object and the detected third route, wherein the controller is further configured to: if the detected first route is substantially identical with the detected third route, set the first moving object as the reference object, and if the detected second route is substantially identical with the detected third route, set the second moving object as the reference object. a camera unit configured to detect a first route of a first moving object and a second route of a second moving object in front of the HMD; an eye gaze detection unit configured to detect a third route along which an eye gaze of a user moves; and a controller configured to perform an eye gaze calibration based on a route of a reference object and the detected third route, wherein the controller is further configured to: if the detected first route is substantially identical with the detected third route, set the first moving object as the reference object, and if the detected second route is substantially identical with the detected third route, set the second moving object as the reference object. if the detected first route is substantially identical with the detected third route, set the first moving object as the reference object, and if the detected second route is substantially identical with the detected third route, set the second moving object as the reference object.
A photovoltaic diode, 300, comprising: an emitter layer, 301, of doped Group III-V semiconductor material, having a first conductivity type and a first bandgap in at least part of the layer, an intrinsic layer, 302, of dilute nitride Group III-V semiconductor material having a composition given by the formula Ga 1-z In z N x As y Sb 1-x-y, where 0 < z < 0.20, 0.01 < x < 0.05, and y > 0.80 having a second bandgap, a base layer, 303, of semiconductor material having a third bandgap and a second conductivity type opposite to the first conductivity type, wherein the emitter, intrinsic and base layers form a diode junction, and wherein the first bandgap is greater than the second bandgap, wherein the emitter layer comprises a wide bandgap emitter layer, 301a, of Group III-V semiconductor material having the first bandgap and a narrow bandgap emitter layer, 301b, between the wide bandgap emitter layer and the intrinsic layer, the narrow gap emitter layer having the first conductivity type and being of a dilute nitride Group III-V semiconductor material having composition given by the formula Ga 1-z In z N x As y Sb 1-x-y, where 0 < z < 0.20, 0.01 < x < 0.05, and y > 0.80, wherein the narrow gap emitter layer has a fourth bandgap that is smaller than the first bandgap, characterized in that the narrow bandgap emitter layer is less in thickness than a diffusion length of the minority carriers. an emitter layer, 301, of doped Group III-V semiconductor material, having a first conductivity type and a first bandgap in at least part of the layer, an intrinsic layer, 302, of dilute nitride Group III-V semiconductor material having a composition given by the formula Ga 1-z In z N x As y Sb 1-x-y, where 0 < z < 0.20, 0.01 < x < 0.05, and y > 0.80 having a second bandgap, a base layer, 303, of semiconductor material having a third bandgap and a second conductivity type opposite to the first conductivity type, wherein the emitter, intrinsic and base layers form a diode junction, and wherein the first bandgap is greater than the second bandgap, wherein the emitter layer comprises a wide bandgap emitter layer, 301a, of Group III-V semiconductor material having the first bandgap and a narrow bandgap emitter layer, 301b, between the wide bandgap emitter layer and the intrinsic layer, the narrow gap emitter layer having the first conductivity type and being of a dilute nitride Group III-V semiconductor material having composition given by the formula Ga 1-z In z N x As y Sb 1-x-y, where 0 < z < 0.20, 0.01 < x < 0.05, and y > 0.80, wherein the narrow gap emitter layer has a fourth bandgap that is smaller than the first bandgap, characterized in that the narrow bandgap emitter layer is less in thickness than a diffusion length of the minority carriers.
A polyethylene resin comprising from 0.6 to 1 weight % of 1-octene and the balance ethylene, having a density from 0.948 to 0.953 g/cc, a melt index determined according to ASTM1238 under a load of 2.16 kg at a temperature of 190°C (I 2) from 1.0 to 1.5 g/10 minutes; a melt index determined according to ASTM1238 under a load of 21.6 kg at a temperature of 190°C (I 21) from 32 to 55 g/10 minutes; a weight average molecular weight (Mw) determined by gel permeation chromatography from 90,000 to 130,000; a number average molecular weight (Mn) determined by gel permeation chromatography from 20,000 to 40,000; a z average molecular weight (Mz) from 240,000 to 360,000; an Mw/Mn from 2.9 to 4; an Mz/Mw from 2.9 to 3.2; and having a CBDI from 80 to 95, the molecular weight distribution determined by GPC of said polymer being deconvoluted into at least two components comprising: from 20 to 40 weight % of a first component having a calculated weight average molecular weight (Mw) being from 200,000 to 250,000; a calculated number average molecular weight from 90,000 to 135,000; a z average molecular weight 390,000 to 490,000 and an estimated density from 0.921 to 0.930 g/cc; from 60 to 80 weight % of a second component having a calculated weight average molecular weight (Mw) being from 37,000 to 57,000; a calculated number average molecular weight (Mn) from 18,000 to 30,000; a z average molecular weight 60,000 to 85,000 and an estimated density from 0.948 to 0.953 g/cc, provided that the density difference between component two and component one is less than 0.030 g/cc. from 20 to 40 weight % of a first component having a calculated weight average molecular weight (Mw) being from 200,000 to 250,000; a calculated number average molecular weight from 90,000 to 135,000; a z average molecular weight 390,000 to 490,000 and an estimated density from 0.921 to 0.930 g/cc; from 60 to 80 weight % of a second component having a calculated weight average molecular weight (Mw) being from 37,000 to 57,000; a calculated number average molecular weight (Mn) from 18,000 to 30,000; a z average molecular weight 60,000 to 85,000 and an estimated density from 0.948 to 0.953 g/cc, provided that the density difference between component two and component one is less than 0.030 g/cc.
A 3D heating component for e-cigarette atomizer, including: a plate body having upper and lower surfaces, said plate body being configured to be continuously heated to atomize e-liquid of the e-cigarette, and a plurality of 3D heating units provided on the plate body, each of the 3D heating units includes: - a through hole for volatilizing atomized e-liquid, said through hole being disposed on the plate body by running through the upper and lower surfaces of the plate body, and - guide channels for continuously supplying the e-liquid, said guide channels being distributed regularly at the periphery of the through hole, wherein the guide channels are recessed from one of the upper or lower surfaces of the plate body and communicate with the through hole, the guide channels of the adjacent 3D heating units are connected with each other on the one of the upper or lower surfaces of the plate body, and wherein said plurality of 3D heating units forms a regular convex-concave pattern on the one of the upper or lower surfaces of the plate body. a plate body having upper and lower surfaces, said plate body being configured to be continuously heated to atomize e-liquid of the e-cigarette, and a plurality of 3D heating units provided on the plate body, each of the 3D heating units includes: - a through hole for volatilizing atomized e-liquid, said through hole being disposed on the plate body by running through the upper and lower surfaces of the plate body, and - guide channels for continuously supplying the e-liquid, said guide channels being distributed regularly at the periphery of the through hole, - a through hole for volatilizing atomized e-liquid, said through hole being disposed on the plate body by running through the upper and lower surfaces of the plate body, and - guide channels for continuously supplying the e-liquid, said guide channels being distributed regularly at the periphery of the through hole, wherein the guide channels are recessed from one of the upper or lower surfaces of the plate body and communicate with the through hole, the guide channels of the adjacent 3D heating units are connected with each other on the one of the upper or lower surfaces of the plate body, and wherein said plurality of 3D heating units forms a regular convex-concave pattern on the one of the upper or lower surfaces of the plate body.
A method for producing glass fiber, when glass fibers are formed by discharging, from a nozzle tip, a molten glass obtained by melting - by using a melting furnace in which a portion in contact with the molten glass is formed of bricks containing chromium oxide - glass raw materials mixed so as to give a glass composition comprising, when melted, in relation to the total amount thereof, SiO 2 in a range from 57.0 to 62.0% by mass, Al 2 O 3 in a range from 15.0 to 19.5% by mass, MgO in a range from 7.5 to 12.0% by mass, and CaO in a range from 9.0 to 12.5% by mass, and having a total content of SiO 2, Al 2 O 3, MgO and CaO of 98.0% by mass or more, wherein the glass composition comprises B 2 O 3 alone or a mixture composed of B 2 O 3 and LizO, as an additive or additives capable of suppressing generation of red crystals, wherein a ratio of the product between a content of the additive or additives capable of suppressing generation of red crystals (% by mass) and the content (% by mass) of CaO to the content (% by mass) of Al 2 O 3 is in a range from 0.28 to 1.00
A one-touch tent flysheet, of which an edge portion is fixed to the ground in a state in which the one-touch tent flysheet covers a tent to protect the tent from an external environment, the one-touch tent flysheet comprising: a waterproof cloth installed to cover the tent; a tunnel-type pole which is fixed to the waterproof cloth to allow the waterproof cloth to stand in the form of a tunnel when the flysheet is installed and which is formed in a ring shape and bent so that a pair of first points facing each other press against the ground and a pair of second points facing each other, which are at a right angle from the first points, are located at the highest height level; a fastening member configured to connect and fix portions of the tent and the flysheet to allow the flysheet to be attached to or detached from the tent; characterised in that the one-touch flysheet further comprising: a first wire configured to connect the pair of first points of the tunnel-type pole; and a second wire configured to connect the pair of second points, wherein a sleeve through which the second wire passes is formed between the pair of second points of the tunnel-type pole, and an auxiliary pole, of which a length is longer than a diameter of the tunnel-type pole in its ring shape form, is inserted into the sleeve. a waterproof cloth installed to cover the tent; a tunnel-type pole which is fixed to the waterproof cloth to allow the waterproof cloth to stand in the form of a tunnel when the flysheet is installed and which is formed in a ring shape and bent so that a pair of first points facing each other press against the ground and a pair of second points facing each other, which are at a right angle from the first points, are located at the highest height level; a fastening member configured to connect and fix portions of the tent and the flysheet to allow the flysheet to be attached to or detached from the tent; characterised in that the one-touch flysheet further comprising: a first wire configured to connect the pair of first points of the tunnel-type pole; and a second wire configured to connect the pair of second points, wherein a sleeve through which the second wire passes is formed between the pair of second points of the tunnel-type pole, and an auxiliary pole, of which a length is longer than a diameter of the tunnel-type pole in its ring shape form, is inserted into the sleeve. a first wire configured to connect the pair of first points of the tunnel-type pole; and a second wire configured to connect the pair of second points, wherein a sleeve through which the second wire passes is formed between the pair of second points of the tunnel-type pole, and an auxiliary pole, of which a length is longer than a diameter of the tunnel-type pole in its ring shape form, is inserted into the sleeve.
A damper (214, 300, 400) of an aircraft landing gear system, the damper (214, 300, 400) comprising: an adjustable damper valve, wherein adjustment of the damper valve changes a damping coefficient of the damper (214, 300, 400); a motor, wherein operation of the motor adjusts the damper valve; an impact prediction module configured to receive aircraft state data and terrain data, and responsive to the received aircraft state data and terrain data, output a target damper force and an initial damper velocity, wherein the aircraft state data comprises lift generated by the aircraft at the time of impact; and a controller configured to: receive the target damper force and the initial damper velocity; in response to receiving the target damper force and initial damper velocity, operate the motor to adjust the damper valve to a position corresponding to a damping coefficient that results in the target damper force at the initial damper velocity; and thereafter, operate the motor to reduce any difference between an actual damping force of the damper (214, 300, 400) and the target damping force. an adjustable damper valve, wherein adjustment of the damper valve changes a damping coefficient of the damper (214, 300, 400); a motor, wherein operation of the motor adjusts the damper valve; an impact prediction module configured to receive aircraft state data and terrain data, and responsive to the received aircraft state data and terrain data, output a target damper force and an initial damper velocity, wherein the aircraft state data comprises lift generated by the aircraft at the time of impact; and a controller configured to: receive the target damper force and the initial damper velocity; in response to receiving the target damper force and initial damper velocity, operate the motor to adjust the damper valve to a position corresponding to a damping coefficient that results in the target damper force at the initial damper velocity; and thereafter, operate the motor to reduce any difference between an actual damping force of the damper (214, 300, 400) and the target damping force. receive the target damper force and the initial damper velocity; in response to receiving the target damper force and initial damper velocity, operate the motor to adjust the damper valve to a position corresponding to a damping coefficient that results in the target damper force at the initial damper velocity; and thereafter, operate the motor to reduce any difference between an actual damping force of the damper (214, 300, 400) and the target damping force.
A charging connector for charging of electric vehicles, comprising a mating interface with electrical contacts for mating the charging connector with a corresponding socket of an electric vehicle, an electrical connection for galvanically connecting a charging cable the electrical contacts, and a handle for grabbing and handling the charging connector with a human hand, characterized in that the charging connector further comprises a motion sensor for detecting a motion of the charging connector, and a signal processing unit, which is located outside of the charging connector, wherein the motion sensor is connected via a data line for routing a motion signal generated by the motion sensor to the signal processing unit, the signal processing unit being configured for extracting patterns that identify that the charging connector is moved, which comprises identifying how the charging connector is moved, which comprises identifying a drive away event which relates to a movement of the charging connector in case it is plugged to a socket of an electric vehicle. a mating interface with electrical contacts for mating the charging connector with a corresponding socket of an electric vehicle, an electrical connection for galvanically connecting a charging cable the electrical contacts, and a handle for grabbing and handling the charging connector with a human hand, characterized in that the charging connector further comprises a motion sensor for detecting a motion of the charging connector, and a signal processing unit, which is located outside of the charging connector, wherein the motion sensor is connected via a data line for routing a motion signal generated by the motion sensor to the signal processing unit, the signal processing unit being configured for extracting patterns that identify that the charging connector is moved, which comprises identifying how the charging connector is moved, which comprises identifying a drive away event which relates to a movement of the charging connector in case it is plugged to a socket of an electric vehicle.
A package configured to contain and provide for sterile presentation of a product, the package comprising: a housing portion defining an interior product storage cavity, the housing portion extending from a first end to a second end; a handling portion integrally formed with the housing portion, the handling portion comprising: a cuff at the second end of the housing portion, wherein the cuff extends in a direction away from the housing portion from a first end to a second end; and a gripping portion extending from the cuff, the gripping portion extending inside the cuff and toward the storage cavity, the gripping portion including a first end, which extends from the second end of the cuff, and a second end, which is provided within the housing portion; and a separation feature disposed between the cuff and the housing portion, the separation feature configured to separate the housing portion and the handling portion. a housing portion defining an interior product storage cavity, the housing portion extending from a first end to a second end; a handling portion integrally formed with the housing portion, the handling portion comprising: a cuff at the second end of the housing portion, wherein the cuff extends in a direction away from the housing portion from a first end to a second end; and a gripping portion extending from the cuff, the gripping portion extending inside the cuff and toward the storage cavity, the gripping portion including a first end, which extends from the second end of the cuff, and a second end, which is provided within the housing portion; and a separation feature disposed between the cuff and the housing portion, the separation feature configured to separate the housing portion and the handling portion. a cuff at the second end of the housing portion, wherein the cuff extends in a direction away from the housing portion from a first end to a second end; and a gripping portion extending from the cuff, the gripping portion extending inside the cuff and toward the storage cavity, the gripping portion including a first end, which extends from the second end of the cuff, and a second end, which is provided within the housing portion; and a separation feature disposed between the cuff and the housing portion, the separation feature configured to separate the housing portion and the handling portion.
An immersion lithographic apparatus comprising: a channel for extraction and passage therethrough of a two phase flow, wherein the channel is formed within a block, the block being of a first material; a second material between the first material and the channel, wherein the second material has a specific heat capacity higher than that of the first material and/or a thermal conductivity lower than that of the first material; and a third material between the second material and the channel, characterized in that the third material has a thermal conductivity higher than that of the second material. a channel for extraction and passage therethrough of a two phase flow, wherein the channel is formed within a block, the block being of a first material; a second material between the first material and the channel, wherein the second material has a specific heat capacity higher than that of the first material and/or a thermal conductivity lower than that of the first material; and a third material between the second material and the channel, characterized in that the third material has a thermal conductivity higher than that of the second material.