mhurhangee/ep-ind-claims huggingface dataset:
An anti-vibration structure comprising: a multi-layered material in which a plurality of rigid hard plates and a plurality of soft plates with viscoelastic properties are layered alternately to each other; an upper plate and a lower plate that are respectively layered at each layering direction side of the multi-layered material; an inner elastic body that is a separate body from the multi-layered material and that is disposed in a through-hole piercing through the multi-layered material in the layering direction; characterised in that a restricting member that has at least a portion embedded in the inner elastic body, that has one end coupled to the upper plate and another end coupled to the lower plate, and that restricts separation of the upper plate and the lower plate; the multi-layered material is pre-compressed by the restricting member; and an outer circumferential face of the inner elastic body and an inner circumferential face of the multi-layered material abut each other without a gap due to the pre-compression. a multi-layered material in which a plurality of rigid hard plates and a plurality of soft plates with viscoelastic properties are layered alternately to each other; an upper plate and a lower plate that are respectively layered at each layering direction side of the multi-layered material; an inner elastic body that is a separate body from the multi-layered material and that is disposed in a through-hole piercing through the multi-layered material in the layering direction; characterised in that a restricting member that has at least a portion embedded in the inner elastic body, that has one end coupled to the upper plate and another end coupled to the lower plate, and that restricts separation of the upper plate and the lower plate; the multi-layered material is pre-compressed by the restricting member; and an outer circumferential face of the inner elastic body and an inner circumferential face of the multi-layered material abut each other without a gap due to the pre-compression.
A connection between a first member and a second member, comprising: said first member; said second member having a longitudinal axis; a connector attaching said first member to said second member, said connector including: an attachment member, having a central axis and one or more projections received in said first member; a plurality of fasteners received by said attachment member and anchored in said second member; and an anchor member connected to said attachment member and anchored to said first member, said anchor member having an elongated shank portion received in said first member; wherein at least one of said fasteners lies at an acute angle to said longitudinal axis of said second member; wherein said second member has a matching surface, and a plurality of other outer surfaces defining its boundaries; and said attachment member is at least partially received in a blind opening in said matching surface of said second member, said blind opening having no portions in communication with any of said other outer surfaces of said second member. said first member; said second member having a longitudinal axis; a connector attaching said first member to said second member, said connector including: an attachment member, having a central axis and one or more projections received in said first member; a plurality of fasteners received by said attachment member and anchored in said second member; and an anchor member connected to said attachment member and anchored to said first member, said anchor member having an elongated shank portion received in said first member; wherein an attachment member, having a central axis and one or more projections received in said first member; a plurality of fasteners received by said attachment member and anchored in said second member; and an anchor member connected to said attachment member and anchored to said first member, said anchor member having an elongated shank portion received in said first member; wherein at least one of said fasteners lies at an acute angle to said longitudinal axis of said second member; wherein said second member has a matching surface, and a plurality of other outer surfaces defining its boundaries; and said attachment member is at least partially received in a blind opening in said matching surface of said second member, said blind opening having no portions in communication with any of said other outer surfaces of said second member.
Drive unit for a vehicle operated by muscular force, in particular a bicycle or an electrically power assisted cycle, with a housing, an electric motor with a stator and a rotor, a stator carrier, and electronics, wherein the stator carrier, the stator, the rotor, and the electronics are formed as a premountable unit such that the premounted unit can be mounted in the housing, characterized in that the rotor is mounted on the stator carrier only by means of just one rolling bearing.
A method for controlling a wind turbine system connected to a power grid, the method comprising: generating a wind turbine control signal based on a power control reference for controlling a power output of a wind turbine; monitoring an electrical frequency of the power grid; in response to detecting a change in the frequency in the power grid, activating a fast frequency support method comprising the steps of; adjusting the power control reference to cause an overproduction of power by the wind turbine; the overproduction of power causing a transfer of inertial kinetic energy from the wind turbine to electrical power; wherein the power control reference is determined by applying an adaptive gain function to a measurement of a difference in grid frequency from a nominal level; characterized in that the adaptive gain function is at least partially based on a wind power penetration level depending on the proportion of power generated by wind turbines in the power grid. generating a wind turbine control signal based on a power control reference for controlling a power output of a wind turbine; monitoring an electrical frequency of the power grid; in response to detecting a change in the frequency in the power grid, activating a fast frequency support method comprising the steps of; adjusting the power control reference to cause an overproduction of power by the wind turbine; the overproduction of power causing a transfer of inertial kinetic energy from the wind turbine to electrical power; wherein the power control reference is determined by applying an adaptive gain function to a measurement of a difference in grid frequency from a nominal level; characterized in that the adaptive gain function is at least partially based on a wind power penetration level depending on the proportion of power generated by wind turbines in the power grid.
A secondary battery comprising a can, an electrode assembly in the can and a cap assembly, wherein the cap assembly comprises: a cap-up (160, 26 0, 360); a current interrupt portion (150, 250, 350) electrically connected to the cap-up; and a gasket (141, 241, 341) disposed around peripheral portions of the cap-up and the current interrupt portion, an outer surface of the gasket being mounted to an inner surface of the can, wherein the current interrupt portion comprises a vent portion (155, 355) arranged to open when an internal pressure of the can rises, and a cap-down (152, 252, 352) comprising one or more holes (153, 253, 353) through which gas generated inside the can can flow towards the cap-up; and the total cross-sectional area of the one or more holes is 0.12 % to 1.61% of the cross-sectional area of the inside of the can. a cap-up (160, 26 0, 360); a current interrupt portion (150, 250, 350) electrically connected to the cap-up; and a gasket (141, 241, 341) disposed around peripheral portions of the cap-up and the current interrupt portion, an outer surface of the gasket being mounted to an inner surface of the can, wherein the current interrupt portion comprises a vent portion (155, 355) arranged to open when an internal pressure of the can rises, and a cap-down (152, 252, 352) comprising one or more holes (153, 253, 353) through which gas generated inside the can can flow towards the cap-up; and the total cross-sectional area of the one or more holes is 0.12 % to 1.61% of the cross-sectional area of the inside of the can.
A method for producing nanoporous films of semiconducting metal oxides comprising the steps of - preparing a solution containing a precursor of a semiconducting metal oxide; - applying the solution on a substrate; - forming a meniscus by dosing the solution between the substrate and a guiding element, wherein the guiding element comprises a metal electrode; - moving the solution by effecting movement of the guiding element with respect to the substrate; and - connecting a voltage source or a current source between the metal electrode of the guiding element and the substrate, to produce a metal oxide nanoporous film from the solution on the substrate, - wherein the solution comprises titanium trichloride (TiCl 3) dissolved in hydrochloric acid (HCl) and a titanium oxide (TiO 2) nanoporous film is produced or the solution comprises an aqueous solution of zinc nitrate (Zn(NO 3) 2 and a zinc oxide (ZnO) nanoporous film is produced. - preparing a solution containing a precursor of a semiconducting metal oxide; - applying the solution on a substrate; - forming a meniscus by dosing the solution between the substrate and a guiding element, wherein the guiding element comprises a metal electrode; - moving the solution by effecting movement of the guiding element with respect to the substrate; and - connecting a voltage source or a current source between the metal electrode of the guiding element and the substrate, to produce a metal oxide nanoporous film from the solution on the substrate, - wherein the solution comprises titanium trichloride (TiCl 3) dissolved in hydrochloric acid (HCl) and a titanium oxide (TiO 2) nanoporous film is produced or the solution comprises an aqueous solution of zinc nitrate (Zn(NO 3) 2 and a zinc oxide (ZnO) nanoporous film is produced.
A wire tensioning device (1;10;11) comprising at least one wire tensioning member (2;9), one support member (3;7) adapted to support the tensioning member in rotation, and blocking means (33;4;8) to block the rotation of said tensioning member, wherein said tensioning member (2;9) consists of a metal fork bent so as to comprise a first end (20;90) as a bridge connected to a second end (21;91) by means of two longitudinal arms (22;92), the second end consisting of two free ends (23;93) of the fork, the support member (3;7) being equipped with at least one through-hole (32;32A) penetrated by said arms (22;92) of the tensioning member (2;9) so that the same rotates with respect to the same support member, the means of blocking the rotation comprising at least one recess or groove (43;82) for the reversible engagement with said first end (20;90) and/or with said two free ends (23;93) of said tensioning member (2;9).
A flexible medical tube made from a material comprising polyvinyl chloride, wherein said tube is fully or in part superimposed by an adhesion promoting agent comprising a styrene-butadiene block copolymer wherein the adhesion promoting agent comprising styrene-butadiene block copolymer is applied to a part or the total of an outer surface of said tube, characterized in that the adhesion promoting agent from styrene-butadiene block copolymer forms a continuous layer on the outer surface or a part of said outer surface of said tube.
Valve device with a front panel device, wherein the valve device is embodied for a gas-operated cooking device and contains the following elements - a gas control valve housing - a front panel, which serves to support and fasten the valve housing, wherein the front panel has a front, which is attached to the front side of the valve housing, and - a gas injector, which is positioned behind the front panel, - the gas injector has a setting device positioned behind the front panel, - the valve device additionally has an open hole at one location on the front of the front panel, said open hole corresponding to the horizontal axis ( x h) of the injector setting, wherein the open hole permits a person with normal capabilities to achieve the injector setting using a screwdriver or suitable means, in order to set or replace the gas injector and characterised in that the front panel additionally has the following elements: - a projection in the vertical direction toward the plane of the front panel and - an L-shaped tab, which is attached to the projection, wherein the relevant tab is bent in the direction of the valve housing and coincides therewith in a way that permits the guidance of a longitudinal setting tool over the length of the horizontal axis ( x h) and its inner recess surrounds the horizontal axis. - a gas control valve housing - a front panel, which serves to support and fasten the valve housing, wherein the front panel has a front, which is attached to the front side of the valve housing, and - a gas injector, which is positioned behind the front panel, - the gas injector has a setting device positioned behind the front panel, - the valve device additionally has an open hole at one location on the front of the front panel, said open hole corresponding to the horizontal axis ( x h) of the injector setting, wherein the open hole permits a person with normal capabilities to achieve the injector setting using a screwdriver or suitable means, in order to set or replace the gas injector and characterised in that the front panel additionally has the following elements: - a projection in the vertical direction toward the plane of the front panel and - an L-shaped tab, which is attached to the projection, wherein the relevant tab is bent in the direction of the valve housing and coincides therewith in a way that permits the guidance of a longitudinal setting tool over the length of the horizontal axis ( x h) and its inner recess surrounds the horizontal axis. - a projection in the vertical direction toward the plane of the front panel and - an L-shaped tab, which is attached to the projection, wherein the relevant tab is bent in the direction of the valve housing and coincides therewith in a way that permits the guidance of a longitudinal setting tool over the length of the horizontal axis ( x h) and its inner recess surrounds the horizontal axis.
A door opening mechanism, comprising a user interface part, a frame part, a spindle junction part and a stub axle, which user interface part is pivotally connected into the frame part via the stub axle, and which door opening mechanism further comprises force transmission parts between the user interface part and the spindle junction part, the door opening mechanism comprising a torsion spring, and the force transmission parts comprising a bevel gear and a bevel gear plate, characterized in that, the force transmission means further comprises a pivoting frame, which pivoting frame has an axle hole in the direction of its longitudinal axis, which bevel gear is an integral part of the spindle junction, and the bevel gear plate comprises a through hole in the opposite end in relation to the bevelled teeth of the plate, and the bevelled teeth of the plate are against the teeth of the bevel gear, and which pivoting frame has a first lateral recess in the middle of the frame and second and third lateral recesses on both sides of the first lateral recess, and next to which second lateral recess is a fourth lateral recess and, correspondingly, next to the third lateral recess is a fifth lateral recess, which five recesses are located one after the other in the direction of the longitudinal axis of the pivoting frame, and the pivoting frame further has moment transmitting surfaces (53, 54), which torsion spring is disposed into the first lateral recess such that the other end of the torsion spring is against one or the other of the end sides (51, 52) of the first lateral recess, and the end of the bevel gear plate on the side of the through hole is disposed into either the second or third lateral recess such that the edges of the bevel gear plate fit together with the end sides (51, 52) of the first lateral recess, and the end on the side of the bevelled teeth forms a projection in relation to the pivoting frame, which user interface part has holes for the stub axle and alignment projections, which are disposed into the fourth and fifth lateral recesses, as well as counter moment transmitting surfaces (210, 211), which are against the moment transmitting surfaces (53, 34), which torsion spring, bevel gear plate, pivoting frame and user interface part are connected to each other via the stub axle, the axle being located in the hole channel formed by the holes of the user interface part, the axle hole of the pivoting frame, the through hole of the bevel gear plate, the torsion spring and the holes in the frame part.
Method for estimating a temperature profile of a water tank, the water tank extending along a substantially vertical axis and undergoing: - an exchange of heat with a device for heating the water in the tank associated with a first height along said vertical axis, the device comprising a heating means powered by an electrical power grid; - a water inlet associated with a second height along said vertical axis; and - a water outlet associated with a third height along said vertical axis; The water inlet and/or the water outlet being equipped with a flow rate sensor (21, 22) measuring a drawn water flow rate; The method comprising the implementation, by data processing means connected to said flow rate sensor (21, 22), of the steps of: (a) from an initial temperature profile (T(h) i) of the tank along said vertical axis, determining a final temperature profile (T(h) f), as a function of a system of equations, the terms of which at least depend on data representing the energy consumption of said heating means of the device and on drawn water flow rate measurements, the estimation method being characterised by the fact that, in step (a), the equation system is a system of convection-diffusion partial differential equations, the terms of which also depend on the first, second and third heights (h1, h2, h3), said system of convection-diffusion partial differential equations comprising a first equation modelling the drawing of water in the tank at the third height and the associated mixing effects, and a second equation modelling the heating of the water by the heating means of the device. - an exchange of heat with a device for heating the water in the tank associated with a first height along said vertical axis, the device comprising a heating means powered by an electrical power grid; - a water inlet associated with a second height along said vertical axis; and - a water outlet associated with a third height along said vertical axis; (a) from an initial temperature profile (T(h) i) of the tank along said vertical axis, determining a final temperature profile (T(h) f), as a function of a system of equations, the terms of which at least depend on data representing the energy consumption of said heating means of the device and on drawn water flow rate measurements, the estimation method being characterised by the fact that, in step (a), the equation system is a system of convection-diffusion partial differential equations, the terms of which also depend on the first, second and third heights (h1, h2, h3), said system of convection-diffusion partial differential equations comprising a first equation modelling the drawing of water in the tank at the third height and the associated mixing effects, and a second equation modelling the heating of the water by the heating means of the device.
A method of producing a long cartridge case blank comprising cutting a length of wire from a supply to initially form a blank, forming a circular tube (17, 19, 21) from one end of the blank by backward extrusion, characterised in that the blank tube is formed by at least three separate backward extrusion steps, wherein each successive backward extrusion step is performed (47, 49) with a punch that is smaller in diameter than a punch (44, 47) used in the preceding extrusion step with the result that the blank tube is formed with three separate sections (17, 19, 21) of progressively smaller inside diameter.
A pharmaceutical composition comprising crystalline Form I of etoricoxib, at least one solubility enhancing agent which is a surfactant selected from the group consisting of anionic surfactants, cationic surfactants, non-ionic surfactants and zwitterionic surfactants or mixtures thereof, and one or more pharmaceutically acceptable excipients, wherein the anionic surfactant is selected from the group consisting of salts of aliphatic monoesters of sulfuric acid and soaps; sulfonated aromatic agents and salts thereof; alkyl naphthalene sulfonates; sulphosuccinates; sulfated polyoxyethylated alcohols; sulfated oils; dioctyl sodium sulfosuccinate; phosphatidyl choline, phosphatidyl glycerol, phosphatidyl inosine, phosphatidylserine, phosphatidic acid and their salts; glyceryl esters; and bile acids and salts thereof; wherein the non-ionic surfactant is selected from the group consisting of polyoxyethylene fatty alcohol ethers; polyoxyethylene sorbitan fatty acid esters; polyoxyethylene fatty acid esters; sorbitan esters; glycerol monostearate; polyethylene glycols; polypropylene glycols; cetyl alcohol; cetostearyl alcohol; stearyl alcohol; aryl alkyl polyether alcohols; polyoxyethylene-polyoxypropylene copolymers; and polaxamines; and wherein the composition is prepared by dry granulation and said etoricoxib retains its original polymorphic form. wherein the anionic surfactant is selected from the group consisting of salts of aliphatic monoesters of sulfuric acid and soaps; sulfonated aromatic agents and salts thereof; alkyl naphthalene sulfonates; sulphosuccinates; sulfated polyoxyethylated alcohols; sulfated oils; dioctyl sodium sulfosuccinate; phosphatidyl choline, phosphatidyl glycerol, phosphatidyl inosine, phosphatidylserine, phosphatidic acid and their salts; glyceryl esters; and bile acids and salts thereof; wherein the non-ionic surfactant is selected from the group consisting of polyoxyethylene fatty alcohol ethers; polyoxyethylene sorbitan fatty acid esters; polyoxyethylene fatty acid esters; sorbitan esters; glycerol monostearate; polyethylene glycols; polypropylene glycols; cetyl alcohol; cetostearyl alcohol; stearyl alcohol; aryl alkyl polyether alcohols; polyoxyethylene-polyoxypropylene copolymers; and polaxamines; and wherein the composition is prepared by dry granulation and said etoricoxib retains its original polymorphic form.