mhurhangee/ep-ind-claims huggingface dataset:
A cubicle comprising: a side wall; a pivotably mounted door having a lock for maintaining the door at a closed position; a locking device for the door, the locking device comprising: a fixed base section provided at the side wall; and a retractable section which laterally extends from the base section to a normal use position in which the door is prevented from pivoting outwards from a closed position, wherein the retractable section is movable to an emergency use position in which the door is free to pivot outwards from the closed position, characterized in that, the locking device and the door include inhibiting means adapted to inhibit lateral movement of the door relative to the locking device when the door is in a closed position. a side wall; a pivotably mounted door having a lock for maintaining the door at a closed position; a locking device for the door, the locking device comprising: a fixed base section provided at the side wall; and a retractable section which laterally extends from the base section to a normal use position in which the door is prevented from pivoting outwards from a closed position, wherein the retractable section is movable to an emergency use position in which the door is free to pivot outwards from the closed position, characterized in that, the locking device and the door include inhibiting means adapted to inhibit lateral movement of the door relative to the locking device when the door is in a closed position. a fixed base section provided at the side wall; and a retractable section which laterally extends from the base section to a normal use position in which the door is prevented from pivoting outwards from a closed position, wherein the retractable section is movable to an emergency use position in which the door is free to pivot outwards from the closed position, characterized in that,
Method for the catalytic denitrification of combustion fumes, in which: • fumes to be treated, from which dust has previously been extracted, are denitrified by mixing them with a denitrification reagent and a denitrification catalyst in divided form (6, 7), then introducing them into a dust collector, • urea, a flow of hot gases, which has a temperature of at least 220°C, and a fraction of the flow of the solids collected by the dust collector forming at least 95% thereof are introduced into a reactivation reactor, and • the by-products, which result from the decomposition of urea in the reactivation reactor and form said denitrification regent, in combination with a flow of solids discharged from the reaction reactor, are recycled by being combined with the fumes to be treated upstream of the dust collector. • fumes to be treated, from which dust has previously been extracted, are denitrified by mixing them with a denitrification reagent and a denitrification catalyst in divided form (6, 7), then introducing them into a dust collector, • urea, a flow of hot gases, which has a temperature of at least 220°C, and a fraction of the flow of the solids collected by the dust collector forming at least 95% thereof are introduced into a reactivation reactor, and • the by-products, which result from the decomposition of urea in the reactivation reactor and form said denitrification regent, in combination with a flow of solids discharged from the reaction reactor, are recycled by being combined with the fumes to be treated upstream of the dust collector.
A device for delivering a solution to tissues and/or organs, the solution comprising at least one solvent and at least one solute, the device comprising a first chamber for housing the solute, a second chamber for housing the solvent and at least one outlet for delivering the solution, said outlet is suitable to be in fluid communication with at least one of the chambers; said chambers are separated from each other by at least one disruptable separation means (52, 53) and are in fluid communication with each other upon disruption of said separation means (52, 53) thereby forming the solution, wherein said device comprises at least one pressure means for manually applying a pressure on the first chamber walls and/or the second chamber walls thereby delivering the solution to said tissues and/or organs, wherein the separation means (52, 53) comprises a spatial separation between the first chamber and the second chamber and wherein the separation means (52, 53) comprises at least one disruption means for disrupting said separation means (52, 53), and wherein the first chamber is movable towards the second chamber which is non-movable, characterized in that the first chamber comprises sodium 2-mercaptoethanesulfonate in powder form.
A composite material comprising: a) activated and ground sodium hexametaphosphate frit particles obtainable by means of a thermal activation method comprising the steps of: i) heating a sodium hexametaphosphate salt until it melts such that a molten sodium hexametaphosphate salt is obtained; ii) abruptly cooling the molten sodium hexametaphosphate salt obtained in step (i) without the aid of a liquid medium to obtain activated sodium hexametaphosphate frit particles; and iii) grinding the activated sodium hexametaphosphate frit particles obtained in step (ii) to obtain activated and ground sodium hexametaphosphate frit particles; wherein the abruptly cooling of step (ii) refers to a reduction of the temperature from the melting temperature of the molten sodium hexametaphosphate salt obtained in step (i) to a temperature below 500°C in less than one minute; and b) a polymer matrix; wherein said activated and ground sodium hexametaphosphate frit particles are embedded in said polymer matrix. a) activated and ground sodium hexametaphosphate frit particles obtainable by means of a thermal activation method comprising the steps of: i) heating a sodium hexametaphosphate salt until it melts such that a molten sodium hexametaphosphate salt is obtained; ii) abruptly cooling the molten sodium hexametaphosphate salt obtained in step (i) without the aid of a liquid medium to obtain activated sodium hexametaphosphate frit particles; and iii) grinding the activated sodium hexametaphosphate frit particles obtained in step (ii) to obtain activated and ground sodium hexametaphosphate frit particles; wherein the abruptly cooling of step (ii) refers to a reduction of the temperature from the melting temperature of the molten sodium hexametaphosphate salt obtained in step (i) to a temperature below 500°C in less than one minute; and i) heating a sodium hexametaphosphate salt until it melts such that a molten sodium hexametaphosphate salt is obtained; ii) abruptly cooling the molten sodium hexametaphosphate salt obtained in step (i) without the aid of a liquid medium to obtain activated sodium hexametaphosphate frit particles; and iii) grinding the activated sodium hexametaphosphate frit particles obtained in step (ii) to obtain activated and ground sodium hexametaphosphate frit particles; b) a polymer matrix;
A ball transfer unit support (220;410;520) for a ball panel (100;210;422;530) comprising a top skin with apertures (213;423) being circular holes with truncated sides, the ball transfer unit support (220;410; 520) comprising: a top ring (226;412;523); an upper portion adjacent to the top ring (226;412;523); a lower portion; and a shoulder between the upper portion and the lower portion; and characterized in that the top ring (226;412;523) comprises a truncated circle. a top ring (226;412;523); an upper portion adjacent to the top ring (226;412;523); a lower portion; and a shoulder between the upper portion and the lower portion; and characterized in that the top ring (226;412;523) comprises a truncated circle.
A method of forming an enclosure, the method comprising the steps of: providing first and second enclosure components comprising a diamond material and having first and second recesses, respectively, at edge portions, at least one of the first and second enclosure components having a cavity, the enclosure components having respective contact surfaces at the first and second recesses; bonding a first type of material to at least surface portions of the first and second recesses of the first and second enclosure components, respectively, the first type of material comprising a material that forms a carbide material with the diamond material of the first and second enclosure components; bonding a second type of material to the first type of material so that the second type of material covers the first type of material, the second type of material being biocompatible and suitable for forming a hermetically sealed seal; contacting the enclosure components to form the enclosure; characterised in that the first and second recesses are shaped such that an outer channel is formed by the co-operation of the first and second recesses when the first and second enclosure components are contacted at the contact surfaces; the method comprises bonding the second type of material of the first enclosure component to the second type of material of the second enclosure component so as to form a hermetically sealed seal in the outer channel; and bonding the second type of material of the first enclosure component to the second type of material of the second enclosure component comprises laser welding. providing first and second enclosure components comprising a diamond material and having first and second recesses, respectively, at edge portions, at least one of the first and second enclosure components having a cavity, the enclosure components having respective contact surfaces at the first and second recesses; bonding a first type of material to at least surface portions of the first and second recesses of the first and second enclosure components, respectively, the first type of material comprising a material that forms a carbide material with the diamond material of the first and second enclosure components; bonding a second type of material to the first type of material so that the second type of material covers the first type of material, the second type of material being biocompatible and suitable for forming a hermetically sealed seal; contacting the enclosure components to form the enclosure; characterised in that the first and second recesses are shaped such that an outer channel is formed by the co-operation of the first and second recesses when the first and second enclosure components are contacted at the contact surfaces; the method comprises bonding the second type of material of the first enclosure component to the second type of material of the second enclosure component so as to form a hermetically sealed seal in the outer channel; and bonding the second type of material of the first enclosure component to the second type of material of the second enclosure component comprises laser welding.
A method, comprising: positioning singulated integrated circuit chips adjacent a sacrificial structure comprising a conductive portion, said integrated circuit chips individually comprising a backside surface; forming wire bonds individually having a first end through which the wire bond is conductively coupled to one of the integrated circuit chips and a second end attached to said conductive portion of said sacrificial structure; forming an encapsulant material adjacent said integrated circuit chip, adjacent said wire bonds, and adjacent said sacrificial structure; removing said sacrificial structure by chemical mechanical polishing to expose said backside surfaces of said integrated circuit chips and to define conductive exposed portions at said second ends of said individual wire bonds in a plane defined by the backside surfaces of said integrated circuit chips, wherein the individual conductive exposed portions of the wire bonds are circular and have respective diameters from 16 to 80 micrometres; and trimming excess portions of said encapsulant material after removing said sacrificial structure, wherein trimming excess portions of the encapsulant material includes trimming excess portions of the encapsulant material to cause a distance from a side of one of the integrated circuit chips to a side of the encapsulant material to be from 0.1 to 0.4 millimetres. positioning singulated integrated circuit chips adjacent a sacrificial structure comprising a conductive portion, said integrated circuit chips individually comprising a backside surface; forming wire bonds individually having a first end through which the wire bond is conductively coupled to one of the integrated circuit chips and a second end attached to said conductive portion of said sacrificial structure; forming an encapsulant material adjacent said integrated circuit chip, adjacent said wire bonds, and adjacent said sacrificial structure; removing said sacrificial structure by chemical mechanical polishing to expose said backside surfaces of said integrated circuit chips and to define conductive exposed portions at said second ends of said individual wire bonds in a plane defined by the backside surfaces of said integrated circuit chips, wherein the individual conductive exposed portions of the wire bonds are circular and have respective diameters from 16 to 80 micrometres; and trimming excess portions of said encapsulant material after removing said sacrificial structure, wherein trimming excess portions of the encapsulant material includes trimming excess portions of the encapsulant material to cause a distance from a side of one of the integrated circuit chips to a side of the encapsulant material to be from 0.1 to 0.4 millimetres.
A method for reducing bow in a laminate structure, comprising: subjecting the laminate structure to at least one thermal cycle comprising cooling the laminate structure to a first temperature ranging from about -20 °C to about 35 °C and heating the laminate structure to a second temperature ranging from about 50 °C to about 120 °C; wherein the laminate structure comprises a first substrate and second substrate attached with an interlayer, and wherein a coefficient of thermal expansion of the first substrate is different than a coefficient of thermal expansion of the second substrate; and characterized in that the thermal cycle comprises a ramp rate between the first and second temperatures ranging from 0.1 °C/min to 2 °C/min. subjecting the laminate structure to at least one thermal cycle comprising cooling the laminate structure to a first temperature ranging from about -20 °C to about 35 °C and heating the laminate structure to a second temperature ranging from about 50 °C to about 120 °C; wherein the laminate structure comprises a first substrate and second substrate attached with an interlayer, and wherein a coefficient of thermal expansion of the first substrate is different than a coefficient of thermal expansion of the second substrate; and characterized in that the thermal cycle comprises a ramp rate between the first and second temperatures ranging from 0.1 °C/min to 2 °C/min.
A compound of formula, wherein X 1 is CH and X 2 is N; R 1 is -N(R 4) 2, cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3)-alkoxy, or (C 1 -C 3)-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3)-alkyl, (C 1 -C 3)-alkyl substituted with at least one D, (C 3 -C 5)-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6, O or S; R 5 is H or (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl. X 1 is CH and X 2 is N; R 1 is -N(R 4) 2, cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3)-alkoxy, or (C 1 -C 3)-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3)-alkyl, (C 1 -C 3)-alkyl substituted with at least one D, (C 3 -C 5)-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6, O or S; R 5 is H or (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3)-alkyl, or (C 1 -C 3)-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl.
Braking device for a transport vehicle with several carrying rollers (6, 10), for exerting a braking action on at least one carrying roller, assigned to which is a braking element which can be moved between a released position and a braking position and which is held such that it can be displaced in a linear manner, and which in the braking position acts together with the carrying roller through frictional engagement, with an actuation element which is in actuation connection with at least one braking element via at least one toggle joint arrangement which has two toggle joints (40, 42) that are borne in an articulated manner, wherein the actuation element is a pivoted actuating shaft on which a first toggle lever of the at least one toggle joint arrangement and an actuating lever or actuating pedal are respectively held in a non-rotating manner, and with a securing element (50, 62, 54) which, outside of an extended toggle lever position, exerts a securing action on the at least one toggle joint arrangement, in the direction of an initially adjacent end position, release position or braking position.
A method of manufacturing an electrode for a secondary battery that comprises an electrode active material coated on a current collector, the method comprising (i) surface-treating the current collector so as to have a morphology with irregularities, wherein a surface roughness R a of 0.1 μm to 1 μm is formed over an entire surface thereof to enhance adhesion between the electrode active material and the current collector, by subjecting the current collector to rolling using a roller provided at a surface with an embossed pattern, and (ii) coating a slurry obtained by mixing an electrode mixture comprising an electrode active material, a conductive material and a binder with an organic solvent onto the current collector, wherein the electrode is at least one of a cathode and an anode, wherein the anode comprises, as an anode active material, a lithium metal oxide represented by Formula 4 below: Li a Ti b O 4 wherein 0.5≤a≤3 and 1≤b≤2.5, characterized in that a vertical cross-section of the pattern is a polygonal, circular, oval, or slit shape. (i) surface-treating the current collector so as to have a morphology with irregularities, wherein a surface roughness R a of 0.1 μm to 1 μm is formed over an entire surface thereof to enhance adhesion between the electrode active material and the current collector, by subjecting the current collector to rolling using a roller provided at a surface with an embossed pattern, and (ii) coating a slurry obtained by mixing an electrode mixture comprising an electrode active material, a conductive material and a binder with an organic solvent onto the current collector,
A process for continuously producing a perfluoroacyl peroxide, which comprises introducing a perfluoroacyl halide-containing organic solvent solution, an aqueous solution of hydrogen peroxide or a metal peroxide and an aqueous solution of a basic alkali metal compound to an inlet of a tubular reactor, mixing the solutions in the tubular reactor to allow them to react with one another, and sending a liquid containing a perfluoroacyl peroxide out from an outlet of the tubular reactor, wherein the perfluoroacyl halide-containing organic solvent solution, the aqueous solution of hydrogen peroxide or a metal peroxide and the aqueous solution of a basic alkali metal compound are introduced to the tubular reactor in a flow rate ratio of, as represented by molar ratio of the compounds in the solutions, from 1.00 to 1.35 of the basic alkali metal compound and from 0.60 to 40 of hydrogen peroxide or the metal peroxide per 1 of the perfluoroacyl halide, and wherein the tube length of a reaction part of the tubular reactor is from 0.1 to 5 m.
A device for generating electrical energy comprising at least a thermoelectric generator arranged between a surface subjected to thermal exposure and a container containing a phase change material, wherein at least a part of a wall of the container is elastically expandable, further including force generating means which bias the container against said thermoelectric generator, characterized in that said force generating means comprise at least one resilient element which is arranged between said container and a device housing.
A machine-implemented method, comprising: receiving, at a website server, an initial website request for a website of the website server from a client device, the website server including a server administrator (122, 300) having components at kernel level and user level, wherein the initial website request is received by a communication interface of the server administrator (122, 300) at kernel level; holding, by the server administrator (122, 300), the initial website request for the website in a request queue of the server administrator (122, 300) at kernel level to execute an inspection stage; detecting, by a configuration manager of the server administrator (122, 300) at user level, the initial website request for the website in the inspection stage and accessing, by the configuration manager, the website request at the request queue; determining, by the configuration manager at user level, a website presentation state for the website; if the website is a dormant website, formulating, by the configuration manager at user level, a loading plan for loading the dormant website in response to the initial website request and initiating a retrieval, by the configuration manager at user level, of the dormant website from a dormant website storage; and moving, by the server administrator (122, 300), the initial website request to a processing stage when the website is ready to be presented. receiving, at a website server, an initial website request for a website of the website server from a client device, the website server including a server administrator (122, 300) having components at kernel level and user level, wherein the initial website request is received by a communication interface of the server administrator (122, 300) at kernel level; holding, by the server administrator (122, 300), the initial website request for the website in a request queue of the server administrator (122, 300) at kernel level to execute an inspection stage; detecting, by a configuration manager of the server administrator (122, 300) at user level, the initial website request for the website in the inspection stage and accessing, by the configuration manager, the website request at the request queue; determining, by the configuration manager at user level, a website presentation state for the website; if the website is a dormant website, formulating, by the configuration manager at user level, a loading plan for loading the dormant website in response to the initial website request and initiating a retrieval, by the configuration manager at user level, of the dormant website from a dormant website storage; and moving, by the server administrator (122, 300), the initial website request to a processing stage when the website is ready to be presented.