mhurhangee/patent-ind-claim-en huggingface dataset:
A method of servicing a combustion liner in a combustion case of a turbine, the method comprising: providing an elongated bar (401; 701) having a handle (403; 703) at one end and a force applying member (405; 705) at an opposing end of the elongated bar; attaching an attachment member (410; 710) to a flange of the combustion case, the attachment member configured for pivotal attachment to the elongated bar applying force to the handle of the elongated bar to apply a related force to the combustion liner, wherein a radially inward force applied to the handle causes a radially outward force on a downstream portion of the combustion liner. providing an elongated bar (401; 701) having a handle (403; 703) at one end and a force applying member (405; 705) at an opposing end of the elongated bar; attaching an attachment member (410; 710) to a flange of the combustion case, the attachment member configured for pivotal attachment to the elongated bar applying force to the handle of the elongated bar to apply a related force to the combustion liner, wherein a radially inward force applied to the handle causes a radially outward force on a downstream portion of the combustion liner.
A food concentrate in the form of a paste comprising a) 20 to 70 wt% of water by weight of the total food concentrate; b) 15 to 40 wt% of salt by weight of the total water content of the food concentrate; c) an effective amount of a taste booster selected from glutamate, 5'-ribonucleotides, sucrose, glucose, fructose, lactic acid, citric acid and mixtures thereof; d) 10 to 55 wt% by weight of the total food concentrate of a delayed-swelling physically modified non-gelatinised starch characterised by Ref Tonset of at least 70°C; e) an effective amount of a thickening agent; f) preferably, less than 5 wt%, preferably less than 3 wt%, more preferably less than 1 wt% of a sorbitol by weight of the total food concentrate and most preferably no sorbitol at all. a) 20 to 70 wt% of water by weight of the total food concentrate; b) 15 to 40 wt% of salt by weight of the total water content of the food concentrate; c) an effective amount of a taste booster selected from glutamate, 5'-ribonucleotides, sucrose, glucose, fructose, lactic acid, citric acid and mixtures thereof; d) 10 to 55 wt% by weight of the total food concentrate of a delayed-swelling physically modified non-gelatinised starch characterised by Ref Tonset of at least 70°C; e) an effective amount of a thickening agent; f) preferably, less than 5 wt%, preferably less than 3 wt%, more preferably less than 1 wt% of a sorbitol by weight of the total food concentrate and most preferably no sorbitol at all.
A method, in a first node , for handling one or more jobs, wherein said first node receives a job over an incoming link, which job comprises a job value, wherein said method comprises the steps of: - determining, by said first node , a deviation of a queuing delay of the first communication node from a target queueing delay value, and - using, by said first node , said deviation as an error value to determine a dropping probability which is used to determine a threshold value, wherein said threshold value, V, corresponds to or is associated with a congestion level of a queue of the job; - comparing, by said first node , the job value with the threshold value and establishing that said job value is below said threshold value; - dropping, by said first node , said job based on said comparison. - determining, by said first node , a deviation of a queuing delay of the first communication node from a target queueing delay value, and - using, by said first node , said deviation as an error value to determine a dropping probability which is used to determine a threshold value, wherein said threshold value, V, corresponds to or is associated with a congestion level of a queue of the job; - comparing, by said first node , the job value with the threshold value and establishing that said job value is below said threshold value; - dropping, by said first node , said job based on said comparison.
A drug delivery device comprising: a housing ; a syringe assembly comprising a barrel , a stopper , and a cannula , at least a portion of the syringe assembly positioned within the housing ; a drive assembly configured to move the stopper within the barrel upon actuation of the drive assembly , at least a portion of the drive assembly positioned within the housing ; with: a lever actuation member moveable between a locked position where actuation of the drive assembly is prevented and a released position where actuation of the drive assembly is allowed; and a needle cover having a pre-use position where the cannula is positioned within the needle cover , an actuation position where the drive assembly is actuated, and a post-use position where the cannula is positioned within the needle cover , the needle cover being configured to engage the lever actuation member and move the lever actuation member to the released position when the needle cover is moved into the actuation position, characterized in that the needle cover prevents movement of the lever actuation member from the locked position to the released position when the needle cover is in the pre-use position. a housing ; a syringe assembly comprising a barrel , a stopper , and a cannula , at least a portion of the syringe assembly positioned within the housing ; a drive assembly configured to move the stopper within the barrel upon actuation of the drive assembly , at least a portion of the drive assembly positioned within the housing ; with: a lever actuation member moveable between a locked position where actuation of the drive assembly is prevented and a released position where actuation of the drive assembly is allowed; and a needle cover having a pre-use position where the cannula is positioned within the needle cover , an actuation position where the drive assembly is actuated, and a post-use position where the cannula is positioned within the needle cover , the needle cover being configured to engage the lever actuation member and move the lever actuation member to the released position when the needle cover is moved into the actuation position, characterized in that the needle cover prevents movement of the lever actuation member from the locked position to the released position when the needle cover is in the pre-use position. a lever actuation member moveable between a locked position where actuation of the drive assembly is prevented and a released position where actuation of the drive assembly is allowed; and a needle cover having a pre-use position where the cannula is positioned within the needle cover , an actuation position where the drive assembly is actuated, and a post-use position where the cannula is positioned within the needle cover , the needle cover being configured to engage the lever actuation member and move the lever actuation member to the released position when the needle cover is moved into the actuation position, characterized in that the needle cover prevents movement of the lever actuation member from the locked position to the released position when the needle cover is in the pre-use position.
Method of manufacturing a vehicle seat structure, a vehicle seat or a vehicle seat bench, wherein a groove is formed at an edge on an areal back shell (2.1, 2.2), and, on the back shell (2.1, 2.2), there are integrally formed a frame structure (1.1, 1.2) and stiffening ribs (6.1) situated at a front side in a direction of travel and absorption ribs (6.2) situated at a rear side in a direction of travel, characterized in that the frame structure (1.1, 1.2) is formed in encircling fashion at the inside in relation to the groove, and the back shell (2.1, 2.2) is reinforced on the front side and rear side by means of a multiplicity of horizontal ribs (5.1) and vertical ribs (5.2), and wherein insertion components are arranged in or on the back shell (2.1, 2.2) and/or the frame structure (1.1, 1.2) and are encased at least in areas by the thermoplastic plastic of the back shell (2.1, 2.2) and/or of the frame structure (1.1, 1.2).
A method for spraying a chemical solution, comprising: spraying the chemical solution onto a dryer roller (D1-D9) by a nozzle device (S) with the nozzle device (S) reciprocated along a rail (L) extended in the width direction of the dryer roller (D1-D9) in a state that the dryer roller (D1-D9), for guiding wet paper (X), is being rotated, in a dry part (DP) of a paper-making machine, wherein a time T required for the nozzle device (S) to travel one-way is set as 0.4 to 3.0 minutes; a rotational speed Vd of the dryer roller (D1-D9) is set as not less than 100 times/min; a number of contacts N that a point on the dryer roller (D1-D9) surface makes contact with the wet paper (X) during the time T is set as 50 to 400 times; the time T, the rotational speed Vd, and the number of contacts N satisfy the relationship of N=T ∗ Vd; and a total amount of the sprayed chemical solution is set as 0.3 to 500 mg/m 2 as an effective component amount, wherein an average moving speed Vn of the nozzle device (S) is set as 4 to 10 m/min; a paper width W of the wet paper (X) is set as 4 to 12 m; and the average moving speed Vn, the paper width W, and the time T satisfy the relationship of T=W/Vn, wherein a transportation speed Vp of the wet paper (X) is set as not less than 600 m/min; a diameter D of the dryer roller (D1-D9) is set as 1.50 to 1.85 m; and the rotational speed Vd, the transportation speed Vp, and the diameter D satisfy the relationship of Vd=Vp/πD, the nozzle device (S) is arranged to spray the chemical solution onto the dryer roller (D1-D9) radially. wherein a time T required for the nozzle device (S) to travel one-way is set as 0.4 to 3.0 minutes; a rotational speed Vd of the dryer roller (D1-D9) is set as not less than 100 times/min; a number of contacts N that a point on the dryer roller (D1-D9) surface makes contact with the wet paper (X) during the time T is set as 50 to 400 times; the time T, the rotational speed Vd, and the number of contacts N satisfy the relationship of N=T ∗ Vd; and a total amount of the sprayed chemical solution is set as 0.3 to 500 mg/m 2 as an effective component amount, wherein an average moving speed Vn of the nozzle device (S) is set as 4 to 10 m/min; a paper width W of the wet paper (X) is set as 4 to 12 m; and the average moving speed Vn, the paper width W, and the time T satisfy the relationship of T=W/Vn, wherein a transportation speed Vp of the wet paper (X) is set as not less than 600 m/min; a diameter D of the dryer roller (D1-D9) is set as 1.50 to 1.85 m; and the rotational speed Vd, the transportation speed Vp, and the diameter D satisfy the relationship of Vd=Vp/πD, the nozzle device (S) is arranged to spray the chemical solution onto the dryer roller (D1-D9) radially.
Motorized valve , comprising an actuation stem that is driven by an electric motor and is connected to a mobile obturator that can adopt an open position and a closed position, the obturator resting on a seat against the pressure of a liquid, the obturator being urged against its seat by the electric motor and at least one preloaded elastic return member (60; 61) for assisting closing, the valve comprising a valve body and a head that houses the electric motor for actuating the obturator , this being able to move relative to the body between said positions, characterized by the head being able to rotate relative to the body .
A system for generating an interface on a resonance surface , the system comprising: a memory storing one or more instructions; and a processor configured to execute the one or more instructions to: determine a first type of resonance pattern based on a control signal received from a control unit , and generate the first type of resonance pattern on the resonance surface by configuring a first haptic output device to generate a first haptic output at a location on the resonance surface and configuring a second haptic output device to generate a second haptic output that interferes constructively or destructively with the first haptic output at the location, wherein the location on the resonance surface resonates according to the first type of resonance pattern , characterized in that the resonance surface comprises a composite surface , the composite surface includes a resonance material and a non-resonance material, and when the first type of resonance pattern interacts with the resonance material and the non-resonance material of the composite surface , only the resonance material resonates. a memory storing one or more instructions; and a processor configured to execute the one or more instructions to: determine a first type of resonance pattern based on a control signal received from a control unit , and generate the first type of resonance pattern on the resonance surface by configuring a first haptic output device to generate a first haptic output at a location on the resonance surface and configuring a second haptic output device to generate a second haptic output that interferes constructively or destructively with the first haptic output at the location, wherein the location on the resonance surface resonates according to the first type of resonance pattern , characterized in that the resonance surface comprises a composite surface , the composite surface includes a resonance material and a non-resonance material, and when the first type of resonance pattern interacts with the resonance material and the non-resonance material of the composite surface , only the resonance material resonates. determine a first type of resonance pattern based on a control signal received from a control unit , and generate the first type of resonance pattern on the resonance surface by configuring a first haptic output device to generate a first haptic output at a location on the resonance surface and configuring a second haptic output device to generate a second haptic output that interferes constructively or destructively with the first haptic output at the location, wherein the location on the resonance surface resonates according to the first type of resonance pattern , characterized in that the resonance surface comprises a composite surface , the composite surface includes a resonance material and a non-resonance material, and when the first type of resonance pattern interacts with the resonance material and the non-resonance material of the composite surface , only the resonance material resonates.
A process for forming a conductive track or coating on a substrate, comprising: (i) applying a conductive paste to the substrate, the conductive paste comprising a solids portion dispersed in an organic medium, the solids portion comprising particles of electrically conductive material and an inorganic particle mixture comprising substantially crystalline particles of two or more different metal compounds, wherein the inorganic particle mixture includes substantially crystalline particles of a tellurium compound and is substantially lead free and wherein the tellurium compound is TeO 2 ; and (ii) firing the applied conductive paste on the surface of the substrate with a firing profile in which the temperature of the surface of the applied conductive paste exceeds 500°C for a period of two minutes or less, to produce a conductive track or coating comprising a conductive layer formed from the particles of electrically conductive material and an amorphous oxide layer formed from the inorganic particle mixture. (i) applying a conductive paste to the substrate, the conductive paste comprising a solids portion dispersed in an organic medium, the solids portion comprising particles of electrically conductive material and an inorganic particle mixture comprising substantially crystalline particles of two or more different metal compounds, wherein the inorganic particle mixture includes substantially crystalline particles of a tellurium compound and is substantially lead free and wherein the tellurium compound is TeO 2 ; and (ii) firing the applied conductive paste on the surface of the substrate with a firing profile in which the temperature of the surface of the applied conductive paste exceeds 500°C for a period of two minutes or less, to produce a conductive track or coating comprising a conductive layer formed from the particles of electrically conductive material and an amorphous oxide layer formed from the inorganic particle mixture.
A computer-implemented method (500; 600) for determining sandbox configurations (925-a, ..., 925-n) for malware analysis on a computer system , comprising: receiving (505; 605) via one or more processors , a plurality of files (905-a, ..., 905-c); extracting (510; 610) via the one or more processors , at least one element (910-1, 910-b) from at least one file from the plurality of files (905-a, ..., 905-c); identifying (515; 625) via the one or more processors , one or more properties (915-a, ... 915-k) associated with an endpoint, wherein the endpoint is related to at least one of the plurality of files (905-a, ..., 905-c); determining (520; 630) via the one or more processors , a correlation between the at least one extracted element (910-1, 910-b) and the one or more properties (915-a, ... 915-k) of the endpoint; and determining (525; 635) via the one or more processors , one or more sandbox configurations (925-a, ..., 925-n) based at least in part on the determined correlation. receiving (505; 605) via one or more processors , a plurality of files (905-a, ..., 905-c); extracting (510; 610) via the one or more processors , at least one element (910-1, 910-b) from at least one file from the plurality of files (905-a, ..., 905-c); identifying (515; 625) via the one or more processors , one or more properties (915-a, ... 915-k) associated with an endpoint, wherein the endpoint is related to at least one of the plurality of files (905-a, ..., 905-c); determining (520; 630) via the one or more processors , a correlation between the at least one extracted element (910-1, 910-b) and the one or more properties (915-a, ... 915-k) of the endpoint; and determining (525; 635) via the one or more processors , one or more sandbox configurations (925-a, ..., 925-n) based at least in part on the determined correlation.
An isolated form of isomyosmine or a pharmaceutically acceptable salt thereof for use in: - treating hemochromatosis; - the treatment of emphysema and other respiratory disorders by increasing blood oxygen saturation levels; or - mitigating the effects of space travel. - treating hemochromatosis; - the treatment of emphysema and other respiratory disorders by increasing blood oxygen saturation levels; or - mitigating the effects of space travel.
An application system with a cartridge , which has at least one container with a respective outlet , and a closure element , which can tightly close the outlet of the at least one container , wherein the closure element tightly closes the cartridge in a state of storage, and wherein, with the cartridge in a state of use, the closure element can be removed from the latter and a corresponding accessory can be connected with the outlet of the at least one container , characterized in that , in a state of delivery, the cartridge or the closure element has a connecting element which cannot be nondestructively removed, that, in a state of storage, the cartridge or the closure element is connected with the closure element or the cartridge by the connecting element which cannot be nondestructively removed, and that, when detaching the closure element which tightly closes the cartridge from the cartridge , a part of the connecting element which has a color coding remains on the cartridge and/or the closure element .
A composition for preserving nucleic acids and cells in a biological sample comprising: at least one volume excluding polymer, wherein the at least one volume excluding polymer is present in an amount of 10 to 50% by weight of the composition; at least one osmotic agent, wherein the at least one osmotic agent is present in an amount of 1 to 20% by weight of the composition, and wherein the at least one osmotic agent is a salt; at least one nuclease inhibitor, wherein the at least one nuclease inhibitor is present in an amount from 1 to 30% by weight of the composition; and optionally, a metabolic inhibitor, wherein the metabolic inhibitor is present in an amount from 0.01 to 10 % by weight of the composition. at least one volume excluding polymer, wherein the at least one volume excluding polymer is present in an amount of 10 to 50% by weight of the composition; at least one osmotic agent, wherein the at least one osmotic agent is present in an amount of 1 to 20% by weight of the composition, and wherein the at least one osmotic agent is a salt; at least one nuclease inhibitor, wherein the at least one nuclease inhibitor is present in an amount from 1 to 30% by weight of the composition; and optionally, a metabolic inhibitor, wherein the metabolic inhibitor is present in an amount from 0.01 to 10 % by weight of the composition.
A method for etching a magnetic tunneling junction (MTJ) structure comprising: providing a MTJ stack on a substrate; depositing a metal hard mask layer having a first thickness on said MTJ stack; depositing a dielectric hard mask layer on said metal hard mask layer; forming a hybrid hard mask on said dielectric hard mask layer wherein said hybrid hard mask comprises a plurality of spin-on carbon layers alternating with a plurality of spin-on silicon layers wherein a topmost layer of said hybrid hard mask is a silicon layer; forming a photo resist pattern on said hybrid hard mask; first etching said topmost silicon layer of said hybrid hard mask where is it not covered by said photo resist pattern using a first etching chemistry; thereafter second etching said hybrid hard mask where it is not covered by said photo resist pattern wherein said photoresist pattern is etched away using a second etching chemistry; and thereafter etching said dielectric hard mask, said metal hard mask, and said MTJ stack where they are not covered by said hybrid hard mask to form a MTJ device and overlying top electrode wherein said metal hard mask layer remaining has a second thickness no less than 80% of said first thickness. providing a MTJ stack on a substrate; depositing a metal hard mask layer having a first thickness on said MTJ stack; depositing a dielectric hard mask layer on said metal hard mask layer; forming a hybrid hard mask on said dielectric hard mask layer wherein said hybrid hard mask comprises a plurality of spin-on carbon layers alternating with a plurality of spin-on silicon layers wherein a topmost layer of said hybrid hard mask is a silicon layer; forming a photo resist pattern on said hybrid hard mask; first etching said topmost silicon layer of said hybrid hard mask where is it not covered by said photo resist pattern using a first etching chemistry; thereafter second etching said hybrid hard mask where it is not covered by said photo resist pattern wherein said photoresist pattern is etched away using a second etching chemistry; and thereafter etching said dielectric hard mask, said metal hard mask, and said MTJ stack where they are not covered by said hybrid hard mask to form a MTJ device and overlying top electrode wherein said metal hard mask layer remaining has a second thickness no less than 80% of said first thickness.