mhurhangee/ep-ind-claims huggingface dataset:
A connector for connecting first and second parts of an apparatus, said apparatus being a helmet, the connector comprising: a first plate; a first anchor point on one side of the first plate, configured to be connected to the first part; a second plate located on an opposite side of the first plate from the first anchor point; a second anchor point on an opposite side of the second plate from the first plate, configured to be connected to the second part; a low friction interface provided between opposing surfaces of the first and second plates (21, 24); and characterised by a cuff of deformable material provided around the first and second plates (21, 24), and configured to at least partially cover the side of the first plate on which the first anchor point is located and to at least partially cover the side of the second plate on which the second anchor point is located. a first plate; a first anchor point on one side of the first plate, configured to be connected to the first part; a second plate located on an opposite side of the first plate from the first anchor point; a second anchor point on an opposite side of the second plate from the first plate, configured to be connected to the second part; a low friction interface provided between opposing surfaces of the first and second plates (21, 24); and characterised by a cuff of deformable material provided around the first and second plates (21, 24), and configured to at least partially cover the side of the first plate on which the first anchor point is located and to at least partially cover the side of the second plate on which the second anchor point is located.
An exhaust gas treatment device for a diesel engine which is configured so that in use a combustible gas is generated by a combustible gas generator, the combustible gas is discharged from a combustible gas discharge port to an exhaust passage in an upper stream of a diesel particulate filter, the combustible gas is burnt by oxygen within an exhaust gas, a temperature of the exhaust gas is raised by heat of the combustion, and particulate matter accumulated in the diesel particulate filter is burnt and removed by heat of the exhaust gas, wherein a combustible gas generation catalyst chamber is installed in the combustible gas generator, a combustible gas generation catalyst is accommodated in the combustible gas generation catalyst chamber, a ring-shaped wall is disposed in a starting end portion of the combustible gas generation catalyst chamber, an air-fuel mixing chamber is formed on an inside of the ring-shaped wall, and air and liquid fuel are supplied to the air-fuel mixing chamber so that an air-fuel mixture gas is formed in the air-fuel mixing chamber, the air-fuel mixture gas is supplied to the combustible gas generation catalyst, and the combustible gas is generated by using the combustible gas generation catalyst, a core member is inwardly inserted into a central portion of the ring-shaped wall so that the air-fuel mixing chamber is formed between an inner peripheral surface of the ring-shaped wall and an outer peripheral surface 18 of the core member, and the air-fuel mixture gas of the air-fuel mixing chamber is supplied from a dead end of the air-fuel mixing chamber to a portion near a central portion of the combustible gas generation catalyst, a heat-dissipating outer peripheral surface of a heater is exposed to the air-fuel mixing chamber by using the heater as the core member, and when the combustible gas starts being generated, heat is directly radiated from the heat-dissipating outer peripheral surface of the heater to the air-fuel mixing chamber, an air-fuel mixture gas inlet face is formed on an inner circumferential face of the combustible gas generation catalyst of a ring shape, a liquid fuel retention material is disposed along the air-fuel mixture gas inlet face, and the core member is inserted into the central portion of the liquid fuel retention material so that the air-fuel mixture gas of the air-fuel mixing chamber 12 is introduced from a dead end of the air-fuel mixing chamber to the air-fuel mixture gas inlet face near a centre of the combustible gas generation catalyst through the liquid fuel retention material, and the heat-dissipation outer peripheral surface of the heater used as the core member is exposed toward the liquid fuel retention material, so that when the combustible gas starts being generated, heat is radiated from the heat-dissipation outer peripheral surface of the heater to the liquid fuel retention material.
A method of treating fabrics comprising the steps of: (a) contacting the surface of the fabric with a chemically cross-linked adhesive composition, wherein the adhesive composition comprises castor oil, cross-linked using at least one isocyanate cross-linking agent, wherein the weight ratio of castor oil to the cross-linking agent is from 78: 22 to 90: 10; (b) removing the adhesive composition from the surface of the textile. (a) contacting the surface of the fabric with a chemically cross-linked adhesive composition, wherein the adhesive composition comprises castor oil, cross-linked using at least one isocyanate cross-linking agent, wherein the weight ratio of castor oil to the cross-linking agent is from 78: 22 to 90: 10; (b) removing the adhesive composition from the surface of the textile.
A combination structure of bicycle frame and motor hub, comprising: a bicycle frame, including a first fork and a second fork which are oppositely arranged, wherein the first fork is provided with a through hole, while the second fork is recessed with an internal thread hole corresponding axially to the through hole, and the first fork is provided, at its inner side adjacent to the through hole, with a positioning groove; a motor hub, being provided, at its center, with a sleeve having an end, related to a positioning end, such that the positioning end can be engaged with and stopped at the positioning groove of the first fork; and an elongated axle having a head end and a tail end, wherein the tail end has an external thread; the elongated axle can pass through the through hole of the first fork and the sleeve of the motor hub, and wherein the external thread of the tail end is engaged correspondingly and fastened into the internal thread hole of the second fork. a bicycle frame, including a first fork and a second fork which are oppositely arranged, wherein the first fork is provided with a through hole, while the second fork is recessed with an internal thread hole corresponding axially to the through hole, and the first fork is provided, at its inner side adjacent to the through hole, with a positioning groove; a motor hub, being provided, at its center, with a sleeve having an end, related to a positioning end, such that the positioning end can be engaged with and stopped at the positioning groove of the first fork; and an elongated axle having a head end and a tail end, wherein the tail end has an external thread; the elongated axle can pass through the through hole of the first fork and the sleeve of the motor hub, and wherein the external thread of the tail end is engaged correspondingly and fastened into the internal thread hole of the second fork.
A flexible display panel comprising: a display area; a non-display area located around the display area; an external device (30, 50) which is disposed on the non-display area of the display panel, wherein the external device comprises a driving chip and a printed circuit film, wherein the printed circuit chip is grounded; a cover disposed on the external device (30, 50) and comprising a first insulating layer disposed on the external device (30, 50), a conductive layer disposed on the first insulating layer, and a second insulating layer disposed on the conductive layer, wherein the first insulating layer comprises at least one electrostatic transfer opening extending between the conductive layer and the external device (30, 50); and wherein the second insulating layer comprises an electrostatic induction opening completely penetrating the second insulating layer in a thickness direction from a surface of the second insulating layer and defined where a planar size of the conductive layer is greater than a planar size of the second insulating layer. a display area; a non-display area located around the display area; an external device (30, 50) which is disposed on the non-display area of the display panel, wherein the external device comprises a driving chip and a printed circuit film, wherein the printed circuit chip is grounded; a cover disposed on the external device (30, 50) and comprising a first insulating layer disposed on the external device (30, 50), a conductive layer disposed on the first insulating layer, and a second insulating layer disposed on the conductive layer, wherein the first insulating layer comprises at least one electrostatic transfer opening extending between the conductive layer and the external device (30, 50); and wherein the second insulating layer comprises an electrostatic induction opening completely penetrating the second insulating layer in a thickness direction from a surface of the second insulating layer and defined
A cooking grate comprising: a first upper sub-grate having a first plurality of cooking members retained in a fixed relationship relative to one another by at least one upper cross-member; and a second lower sub-grate having a second plurality of cooking members retained in a fixed relationship relative to one another by at least one lower cross member; wherein the first and second sub-grates are configured to fit together such that their respective cooking members overlap laterally to define a first cooking surface that is heatable with a higher degree of radiant heating relative to convective heating; wherein respective cooking members of the first and second sub-grate each are spaced apart to define a second cooking surface that is heatable with a lower degree of radiant heating relative to convective heating; and wherein the first and second sub-grate fit together such that their respective cooking members overlap laterally so that only an indirect path remains from below the cooking surface to above the cooking surface such that flame is impeded from travelling from below the cooking surface to above the cooking surface; wherein the cooking members of the first and second sub-grates have an inverted V shape with vertices (3002; 3006) of the cooking members of the first and second sub-grates terminating at substantially the same level to form the first cooking surface. a first upper sub-grate having a first plurality of cooking members retained in a fixed relationship relative to one another by at least one upper cross-member; and a second lower sub-grate having a second plurality of cooking members retained in a fixed relationship relative to one another by at least one lower cross member; wherein the first and second sub-grates are configured to fit together such that their respective cooking members overlap laterally to define a first cooking surface that is heatable with a higher degree of radiant heating relative to convective heating; wherein respective cooking members of the first and second sub-grate each are spaced apart to define a second cooking surface that is heatable with a lower degree of radiant heating relative to convective heating; and wherein the first and second sub-grate fit together such that their respective cooking members overlap laterally so that only an indirect path remains from below the cooking surface to above the cooking surface such that flame is impeded from travelling from below the cooking surface to above the cooking surface; wherein the cooking members of the first and second sub-grates have an inverted V shape with vertices (3002; 3006) of the cooking members of the first and second sub-grates terminating at substantially the same level to form the first cooking surface.
Use of a stationary phase comprising nanofibrillar cellulose derived from plant material in separation methods, wherein said nanofibrillar cellulose, obtained with mechanical disintegration, is in the form of hydrogel and wherein the separation methods are selected from methods based on electrophoresis or chromatography.
A method of tuning a fuel nozzle assembly for a gas turbine having a plurality of circumferentially spaced vanes with holes through walls of the vanes for flowing fuel for premixing with air within the nozzle assembly, the method comprising: preparing a composition comprising at least an aluminum alloy with a melting temperature higher than aluminum; applying the composition to an interior surface of at least a first of the holes within an individual vane of the plurality of vanes, the first hole being in an oversized condition that causes fuel flowing therethrough to flow at a flow rate that is higher than a predetermined flow rate for the first hole; and then heating the vane to cause a metal within the vane to diffuse from the vane into the composition and react with the aluminum alloy in the composition to form a coating on the interior surface of the first hole, the heating step being performed to selectively modify a cross-sectional area of the first hole and thereby directly attain the predetermined flow rate thereof. preparing a composition comprising at least an aluminum alloy with a melting temperature higher than aluminum; applying the composition to an interior surface of at least a first of the holes within an individual vane of the plurality of vanes, the first hole being in an oversized condition that causes fuel flowing therethrough to flow at a flow rate that is higher than a predetermined flow rate for the first hole; and then heating the vane to cause a metal within the vane to diffuse from the vane into the composition and react with the aluminum alloy in the composition to form a coating on the interior surface of the first hole, the heating step being performed to selectively modify a cross-sectional area of the first hole and thereby directly attain the predetermined flow rate thereof.
Multi-layered windowpane comprising: - a first transparent outer layer, - a second transparent outer layer, and - a third, smaller, transparent inner layer that is located in between the outer layers such that the outer transparent layers from all sides protrude from the third inner layer, - an adhesive transparent foil layer located between the first outer layer and the third inner layer that over the entire surface of the third inner layer connects the third inner layer with the first outer layer; - a sealing surrounding the third inner layer and gastight connecting the outline borders of the outer layers; wherein the thickness of each of the outer layers is at least two times the thickness of the third inner layer, and wherein the multi-layered windowpane further comprises spacers distributed over the entire surface of the side of the third inner layer facing towards the second outer layer. - a first transparent outer layer, - a second transparent outer layer, and - a third, smaller, transparent inner layer that is located in between the outer layers such that the outer transparent layers from all sides protrude from the third inner layer, - an adhesive transparent foil layer located between the first outer layer and the third inner layer that over the entire surface of the third inner layer connects the third inner layer with the first outer layer; - a sealing surrounding the third inner layer and gastight connecting the outline borders of the outer layers; wherein the thickness of each of the outer layers is at least two times the thickness of the third inner layer, and wherein the multi-layered windowpane further comprises spacers distributed over the entire surface of the side of the third inner layer facing towards the second outer layer.
An automatic analyzing device comprising: a sample cell; a sample cell conveying part configured to convey the sample cell; a sample injecting part configured to inject a sample into the sample cell; a reagent injecting part configured to inject a reagent into the sample cell; a stir part configured to stir a solution in the sample cell; a measurement part configured to perform optical measurement on the solution in the sample cell by irradiating the solution with light; and a control part (34, 35, 36) configured to control each part (10, 11, 12), wherein the stir part includes: a stir rod to be inserted into the solution in the sample cell; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and the control part drives the rotation motor to rotate the stir rod and drives the vertical motor to vertically reciprocate the stir rod in the solution in the sample cell at the same time to stir the solution in the sample cell; characterized in that the control part drives the vertical motor to vertically reciprocate the stir rod in such a manner as to drive the stir rod to move upward from a fixed position once and to go back to the fixed position in the solution in the sample cell, during a stir operation in which the stir rod inserted in the solution in the sample cell is rotationally driven at the fixed position by the rotation motor. a sample cell; a sample cell conveying part configured to convey the sample cell; a sample injecting part configured to inject a sample into the sample cell; a reagent injecting part configured to inject a reagent into the sample cell; a stir part configured to stir a solution in the sample cell; a measurement part configured to perform optical measurement on the solution in the sample cell by irradiating the solution with light; and a control part (34, 35, 36) configured to control each part (10, 11, 12), wherein the stir part includes: a stir rod to be inserted into the solution in the sample cell; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and a stir rod to be inserted into the solution in the sample cell; a rotation motor configured to drive the stir rod to rotate; and a vertical motor configured to move the stir rod up and down, and the control part drives the rotation motor to rotate the stir rod and drives the vertical motor to vertically reciprocate the stir rod in the solution in the sample cell at the same time to stir the solution in the sample cell; characterized in that the control part drives the vertical motor to vertically reciprocate the stir rod in such a manner as to drive the stir rod to move upward from a fixed position once and to go back to the fixed position in the solution in the sample cell, during a stir operation in which the stir rod inserted in the solution in the sample cell is rotationally driven at the fixed position by the rotation motor.
A luminaire, comprising a shade, a mounting base, a first end cap, a second end cap, a light source module and a drive power source, wherein the shade has two first folded edges opposite to each other, and the mounting base has two second folded edges opposite to each other; the first folded edges are in snap-fit with the second folded edges; the first end cap and the second end cap are respectively connected to two ends of the mounting base; the shade, the mounting base, the first end cap and the second end cap form an accommodating cavity, and the light source module and the drive power source are disposed in the accommodating cavity; characterized in that the luminaire further comprises a shade pushing assembly, and the shade pushing assembly comprises a force-exerting key and a pushing piece; the force-exerting key is in sliding fit with a sidewall of the mounting base, and the pushing piece is located in the accommodating cavity; one end of the force-exerting key is connected to the pushing piece, and the other end of the force-exerting key extends out of the mounting base; the pushing piece abuts against a first end face of at least one of the first folded edges, and the first end face is an end face on a side, which is facing the first end cap, of the first folded edge; a movement of the force-exerting key causes the pushing piece to move for driving the shade to slide relative to the mounting base and away from the first end cap. wherein the shade has two first folded edges opposite to each other, and the mounting base has two second folded edges opposite to each other; the first folded edges are in snap-fit with the second folded edges; the first end cap and the second end cap are respectively connected to two ends of the mounting base; the shade, the mounting base, the first end cap and the second end cap form an accommodating cavity, and the light source module and the drive power source are disposed in the accommodating cavity; characterized in that the luminaire further comprises a shade pushing assembly, and the shade pushing assembly comprises a force-exerting key and a pushing piece; the force-exerting key is in sliding fit with a sidewall of the mounting base, and the pushing piece is located in the accommodating cavity; one end of the force-exerting key is connected to the pushing piece, and the other end of the force-exerting key extends out of the mounting base; the pushing piece abuts against a first end face of at least one of the first folded edges, and the first end face is an end face on a side, which is facing the first end cap, of the first folded edge; a movement of the force-exerting key causes the pushing piece to move for driving the shade to slide relative to the mounting base and away from the first end cap.
A solid combustible composition for chemical chimney cleaning eliminating soot and tarry deposits from flues, comprising chemical agents comprising at least one metallic salt chosen from among copper or zinc sulfates and chlorides and at least one ammonium salt chosen from among ammonium chloride and sulfate incorporated into a solid matrix comprising combustible particles, characterized in that the chemical agents are in the form of granules and powder, the composition comprising from 15 to 30 wt% of powder, from 5 to 30 wt% of granules and from 60 to 80 wt% of combustible particles, said granules and powder being distributed homogenously in the solid matrix and the percentages being relative to the total weight of the composition.
A non-aqueous electrolyte comprising a lithium salt and a solvent, the electrolyte containing, based on the weight of the electrolyte, more than 10 and up to 40 wt% of fluoroethylene carbonate and 1-10 wt% of an aliphatic di-nitrile compound represented by Formula 3: N≡C-R-C≡N [Formula 3] wherein R is -(CH 2) n -, and n is an integer of 2-12.
A control unit for installation on the inside of a vehicle door and intended to control the lock function of the vehicle door lock comprising a housing with at least one actuating element (5,6) for electrical or mechanical control of the lock function and the housing is arranged with a space in which either of at least two different modules (6,16) are interchangeably disposable characterized in that the modules consist of actuating elements/lock buttons (6,16), at least the one module, a lock button, is arranged so as to be pivotably mounted on bearings about a shaft in recesses in the housing, further the lock button is equipped with an arm arranged so as to extend out from the housing through one of the recesses.