mhurhangee/ep-ind-claims huggingface dataset:
A production method for a polyacetal copolymer with trioxane as a main monomer (a) and a cyclic ether and/or cyclic formal having at least one carbon-carbon bond as a comonomer (b), wherein when producing the polyacetal copolymer, copolymerization is carried out using a heteropoly acid shown by the below General Formula as a polymerization catalyst (c), and the polymerization catalyst (c) is deactivated by adding to a reaction product a carbonate, bicarbonate, or carboxylate of an alkali metal or alkali earth metal or a hydrate thereof (d), wherein an added amount of the carbonate, bicarbonate, or carboxylate of an alkali metal or alkali earth metal or a hydrate thereof (d) with respect to 1 kg of the crude polyacetal copolymer obtained by the copolymerization reaction is 0.006 to 0.34 mEq, and performing a melt kneading treatment. H m [M 1 x · M 2 y O Z] · nH 2 O...... wherein, in the formula, M 1 indicates a central element consisting of one or two elements selected from P and Si, M 2 indicates one or more coordination element selected from W, Mo, and V, and x indicates an integer from 1 to 10, y indicates an integer from 6 to 40, z indicates an integer from 10 to 100, m indicates an integer of 1 or more, and n indicates an integer of 0 to 50. wherein, in the formula, M 1 indicates a central element consisting of one or two elements selected from P and Si, M 2 indicates one or more coordination element selected from W, Mo, and V, and x indicates an integer from 1 to 10, y indicates an integer from 6 to 40, z indicates an integer from 10 to 100, m indicates an integer of 1 or more, and n indicates an integer of 0 to 50.
A control device for operating a machine tool, in particular a milling machine or lathe, having a tool head that can be displaced and positioned by a motor, - which control device is set up to execute an at least partially freely programmable control program, and determines or co-determines the operational sequences of the machine tool, - and which control device comprises a user interface for manually controllable influencing of the operational sequences of the machine tool, wherein - the user interface comprises at least one operating element for manually controllable changing of movements of the tool head, - wherein a multi-functionally designed operating element is provided, which is set up, in a first usage state, to manually set or influence a feed speed during the course of a processing phase of the tool head, and which multi-functionally designed operating element is set up, in a second usage state, to manually set or influence a rapid traverse during the course of a rapid-traverse phase of the tool head, and that - the multi-functionally designed operating element is designed as a rotary adjuster operating element having an infinitely rotatable actuation member, - wherein a movement path to be performed by the tool head is defined in the control program, which movement path comprises processing phases and rapid-traverse phases of the tool head, - characterized in that change-overs between the first and the second usage state of the rotary adjuster operating element are caused by the control program automatically. - which control device is set up to execute an at least partially freely programmable control program, and determines or co-determines the operational sequences of the machine tool, - and which control device comprises a user interface for manually controllable influencing of the operational sequences of the machine tool, wherein - the user interface comprises at least one operating element for manually controllable changing of movements of the tool head, - wherein a multi-functionally designed operating element is provided, which is set up, in a first usage state, to manually set or influence a feed speed during the course of a processing phase of the tool head, and which multi-functionally designed operating element is set up, in a second usage state, to manually set or influence a rapid traverse during the course of a rapid-traverse phase of the tool head, and that - the multi-functionally designed operating element is designed as a rotary adjuster operating element having an infinitely rotatable actuation member, - wherein a movement path to be performed by the tool head is defined in the control program, which movement path comprises processing phases and rapid-traverse phases of the tool head, - characterized in that change-overs between the first and the second usage state of the rotary adjuster operating element are caused by the control program automatically.
A method for collecting microorganisms, the method comprising: a step of introducing a sample into a first container having at least one through hole in a side thereof; a step of having the through hole of the first container to be enclosed within and connected to a second container; a first separation step of performing centrifugation on the first container and the second container with a first centrifugal force to separate the sample into a solution containing microorganisms and a solution containing blood cells; and a second separation step of discharging the solution containing microorganisms from the through hole to the second container to collect the solution containing microorganisms in the second container, characterised in that the through hole is provided at a height of 1/5 or more of a height of the first container, and the second separation step comprises performing centrifugation on the first container and the second container with a second centrifugal force greater than the first centrifugal force, thereby causing the solution containing microorganisms to be discharged from the through hole to the second container. a step of introducing a sample into a first container having at least one through hole in a side thereof; a step of having the through hole of the first container to be enclosed within and connected to a second container; a first separation step of performing centrifugation on the first container and the second container with a first centrifugal force to separate the sample into a solution containing microorganisms and a solution containing blood cells; and a second separation step of discharging the solution containing microorganisms from the through hole to the second container to collect the solution containing microorganisms in the second container, characterised in that the through hole is provided at a height of 1/5 or more of a height of the first container, and the second separation step comprises performing centrifugation on the first container and the second container with a second centrifugal force greater than the first centrifugal force, thereby causing the solution containing microorganisms to be discharged from the through hole to the second container.
A method for producing a silica aerogel, comprising: 1) adding an acid catalyst and a first water glass solution to a reactor to prepare a water glass dispersion solution for forming silica colloid particles, wherein the concentration of a silicon dioxide in the first water glass solution is 0.01 to 2 wt%; 2) adding a surface modifier solution to the water glass dispersion solution for forming silica colloid particles, to form silica colloid particles; 3) mixing an acid catalyst with a second water glass solution to prepare a water glass dispersion solution for forming a silica wet gel, wherein the concentration of a silicon dioxide in the second water glass solution is 1 to 11 wt%; 4) adding the water glass dispersion solution for forming a wet gel to the reactor including the silica colloid particles to form a silica wet gel; and 5) drying the silica wet gel, wherein the concentration of a silicon dioxide in the second water glass solution is equal to or greater than the concentration of a silicon dioxide in the first water glass solution. 1) adding an acid catalyst and a first water glass solution to a reactor to prepare a water glass dispersion solution for forming silica colloid particles, wherein the concentration of a silicon dioxide in the first water glass solution is 0.01 to 2 wt%; 2) adding a surface modifier solution to the water glass dispersion solution for forming silica colloid particles, to form silica colloid particles; 3) mixing an acid catalyst with a second water glass solution to prepare a water glass dispersion solution for forming a silica wet gel, wherein the concentration of a silicon dioxide in the second water glass solution is 1 to 11 wt%; 4) adding the water glass dispersion solution for forming a wet gel to the reactor including the silica colloid particles to form a silica wet gel; and 5) drying the silica wet gel,
A filter, wherein the filter comprises a first filter component and a second filter component that are coupled, wherein the first filter component is configured to receive an optical signal, and filter the optical signal based on a first power difference of signals transmitted on a plurality of frequency bands in the optical signal, wherein the first power difference comprises a difference caused by a first doped optical fiber; and the second filter component is loaded with a first driving electrical signal, the first driving electrical signal is used to control a frequency response of the second filter component, and the second filter component is configured tc filter, by using the frequency response based on a second power difference of the signals transmitted on the plurality of frequency bands, an optical signal obtained after the filtering by the first filter component, wherein the second power difference comprises a difference caused by a stimulated Raman scattering effect. the first filter component is configured to receive an optical signal, and filter the optical signal based on a first power difference of signals transmitted on a plurality of frequency bands in the optical signal, wherein the first power difference comprises a difference caused by a first doped optical fiber; and the second filter component is loaded with a first driving electrical signal, the first driving electrical signal is used to control a frequency response of the second filter component, and the second filter component is configured tc filter, by using the frequency response based on a second power difference of the signals transmitted on the plurality of frequency bands, an optical signal obtained after the filtering by the first filter component, wherein the second power difference comprises a difference caused by a stimulated Raman scattering effect.
A monoclonal antibody specifically binding to a human liver-carboxylesterase 1 protein, which is produced by a hybridoma deposited under Accession No. KCLRF-BP-00282.
A balloon catheter, comprising an elongate tubular body; an inflatable balloon positioned along a distal end portion of the tubular body; and a constraining structure configured to be positioned over the balloon, the constraining structure comprising: a plurality of radial rings spaced apart along a length of the constraining structure; and a plurality of longitudinal struts spaced along a circumference of the constraining structure; wherein the constraining structure has an expanded state and a collapsed state; wherein the constraining structure has an expanded diameter at the expanded state that is smaller than a free inflated diameter of the balloon; and characterized in that opposite ends of the constraining structure are not interconnected by any one of the plurality of longitudinal struts. a plurality of radial rings spaced apart along a length of the constraining structure; and a plurality of longitudinal struts spaced along a circumference of the constraining structure;
A cleaning system (100, 200) for teats (184, 284) of a dairy animal comprising: a fluid dispenser (110, 210) attachable to an animal reception area for receiving the dairy animal before, during or after a milking operation and adapted to dispense a first process fluid and a second process fluid separately from each other, and positioning means (120, 220) coupled to said fluid dispenser and adapted to position said fluid dispenser such that the teats of the dairy animal are at least partially exposed to said first and second process fluids, wherein the fluid dispenser comprises a dispensing arm which is positioned by the positioning means at least at a first operating position where the dispensing arm provides access to the teats and at at least at a second operating position where the first and/or second process fluids can be applied to the teats and which comprises a continuous movement in the vicinity of the teats with continuous or interrupted dispensing of the second process fluid, and respective output conduits (112, 113) for transporting the respective process fluid from respective sources along the output arm to an dispensing nozzle defining a well delineated dispensing area for the first and second process fluids. a fluid dispenser (110, 210) attachable to an animal reception area for receiving the dairy animal before, during or after a milking operation and adapted to dispense a first process fluid and a second process fluid separately from each other, and positioning means (120, 220) coupled to said fluid dispenser and adapted to position said fluid dispenser such that the teats of the dairy animal are at least partially exposed to said first and second process fluids, wherein the fluid dispenser comprises a dispensing arm which is positioned by the positioning means at least at a first operating position where the dispensing arm provides access to the teats and at at least at a second operating position where the first and/or second process fluids can be applied to the teats and which comprises a continuous movement in the vicinity of the teats with continuous or interrupted dispensing of the second process fluid, and respective output conduits (112, 113) for transporting the respective process fluid from respective sources along the output arm to an dispensing nozzle defining a well delineated dispensing area for the first and second process fluids.
A method of controlling execution of threads in a computing environment, said method comprising: stopping, by a thread running in a processor of the computing environment, execution of another thread executing within the processor, the stopping using one or more bits in one or more shared registers of the processor, the one or more shared registers being shared by the thread and the other thread, the stopping comprising: determining whether the other thread is prohibiting being stopped by checking a selected bit in a control register, wherein the control register comprises a register of the one or more shared registers of the processor and a selected bit in an instruction address register, wherein the instruction address register comprises a register of one or more registers of the processor unique to the other thread; stopping, by the thread, instruction fetching and execution on the other thread, based on the immediately preceding determining step determining that the other thread is not prohibiting being stopped; determining that the other thread has stopped executing within the processor; and characterized by performing, by the thread, a drain operation for all threads in the computing environment, wherein the drain operation holds instruction dispatch for the thread until all instructions from the other thread are drained or flushed from a pipeline, when the immediately preceding determining step determines that the other thread has stopped executing within the processor; performing by the thread one or more operations within the processor after the other thread was stopped from executing within the processor by the thread; and based on completing the one or more operations, allowing the other thread to continue executing within the processor. determining whether the other thread is prohibiting being stopped by checking a selected bit in a control register, wherein the control register comprises a register of the one or more shared registers of the processor and a selected bit in an instruction address register, wherein the instruction address register comprises a register of one or more registers of the processor unique to the other thread; stopping, by the thread, instruction fetching and execution on the other thread, based on the immediately preceding determining step determining that the other thread is not prohibiting being stopped; determining that the other thread has stopped executing within the processor; and characterized by performing, by the thread, a drain operation for all threads in the computing environment, wherein the drain operation holds instruction dispatch for the thread until all instructions from the other thread are drained or flushed from a pipeline, when the immediately preceding determining step determines that the other thread has stopped executing within the processor; performing by the thread one or more operations within the processor after the other thread was stopped from executing within the processor by the thread; and based on completing the one or more operations, allowing the other thread to continue executing within the processor.
A pervaporation separation method comprising: bringing a supply liquid containing two or more kinds of components into contact with a carbon membrane, evaporating the liquid through the membrane, cooling a gas having passed through the carbon membrane, and separating a resultant as a permeation liquid containing a specific component, wherein the carbon membrane is one formed by carbonizing a phenol resin having at least one atomic group selected from the group consisting of a methylene bond, a dimethylene ether bond and a methylol group, and wherein the total mole content rate of said atomic groups is 100 to 180% with respect to the phenolic nuclei, and wherein the supply liquid contains an acidic component, wherein to form the carbon membrane carbonization of the phenol resin is carried out under a nitrogen atmosphere after a thermal treatment at 200 to 350°C under air atmosphere, wherein at least one of water, alcohol, ether, and ketone is loaded onto the surfaces and/or into the pores of the carbon membrane by immersing the carbon membrane in said at least one of water, alcohol, ether, and ketone at 50 to 100°C for 3 to 24 hours, and then heating the carbon membrane wherein the carbon membrane has a thickness of 0.01 to 10 μm. bringing a supply liquid containing two or more kinds of components into contact with a carbon membrane, evaporating the liquid through the membrane, cooling a gas having passed through the carbon membrane, and separating a resultant as a permeation liquid containing a specific component,
Multiple screwdriver with a plurality of drive spindles that are arranged around a centre and are equipped or able to be equipped at the end with a respective clamping tool and a ratchet drive, assigned to each drive spindle and driven by means of a hydraulic piston drive, for driving the drive spindles, characterised in that, in addition to the ratchet drive, a locking ratchet acts on each drive spindle in order to lock the drive spindle against turning back when a return stroke movement of the drive ratchet is exerted, which locking ratchets are arranged in a locking carrier through which the drive spindles pass, and that the locking carrier is provided with means for releasing the locking ratchets.
A method of overriding battery discharge protection in a mobile communication device comprising: determining a measured battery voltage; determining an excess battery discharge condition, wherein further battery discharge will result in an impaired ability to recharge a battery; characterised by detecting an emergency communication state by detecting emergency communications signalling; disabling battery discharge protection in response to the emergency communication state; and continuing discharge of the battery. determining a measured battery voltage; determining an excess battery discharge condition, wherein further battery discharge will result in an impaired ability to recharge a battery; characterised by detecting an emergency communication state by detecting emergency communications signalling; disabling battery discharge protection in response to the emergency communication state; and continuing discharge of the battery.
A water-soluble packaging which contains a liquid washing or cleaning agent and a water soluble wrapping, characterized in that the liquid washing or cleaning agent contains a) non-ionic surfactant selected from the group consisting of alkoxylated fatty alcohols, alkyl polyglycosides, ethoxylated methyl esters of natural fatty acids and mixtures thereof, b) anionic surfactant selected from the group consisting of fatty alcohol sulfates, fatty alcohol ether sulfates, fatty acid soaps, sulfonated estolides and mixtures thereof, c) organic solvent which comprises a mixture of 1,2-propanediol and ethanol, d) up to 15 wt.%, based on the entire washing or cleaning agent, water, e) up to 50 wt.%, based on the entire washing or cleaning agent, 1,2-propanediol, f) up to 5 wt.%, based on the entire washing or cleaning agent, ethanol, and is g) free of isopropanol, preferably free of additional organic solvents, the total amount of anionic surfactant being up to 35 wt.% based on the entire washing or cleaning agent. a) non-ionic surfactant selected from the group consisting of alkoxylated fatty alcohols, alkyl polyglycosides, ethoxylated methyl esters of natural fatty acids and mixtures thereof, b) anionic surfactant selected from the group consisting of fatty alcohol sulfates, fatty alcohol ether sulfates, fatty acid soaps, sulfonated estolides and mixtures thereof, c) organic solvent which comprises a mixture of 1,2-propanediol and ethanol, d) up to 15 wt.%, based on the entire washing or cleaning agent, water, e) up to 50 wt.%, based on the entire washing or cleaning agent, 1,2-propanediol, f) up to 5 wt.%, based on the entire washing or cleaning agent, ethanol, and is g) free of isopropanol, preferably free of additional organic solvents, the total amount of anionic surfactant being up to 35 wt.% based on the entire washing or cleaning agent.
A method for forming a water-dispersible axial flow diagnostic device, the device comprising a test strip positioned in contact with a support, wherein both the test strip and the support are comprised of a water-dispersible material, the method comprising: - providing a single nonwoven matrix layer to be used as a matrix, or laminating together two or more matrix layers to create a web forming a matrix; - forming one or more channels that will direct liquid flow on or within the matrix; - dispensing one or more reagents, antibodies, or diagnostic chemistries onto the matrix as at least one of a liquid, solid, or gel form, or a combination of two or more of these forms; - curing the matrix via a curing device; and - sectioning the matrix into a plurality of individual matrix sections so as to separate, segment, and/or shape the continuous matrix into a plurality of individual matrix sections devices, device matrixes, test strips, or other individual device sections. - providing a single nonwoven matrix layer to be used as a matrix, or laminating together two or more matrix layers to create a web forming a matrix; - forming one or more channels that will direct liquid flow on or within the matrix; - dispensing one or more reagents, antibodies, or diagnostic chemistries onto the matrix as at least one of a liquid, solid, or gel form, or a combination of two or more of these forms; - curing the matrix via a curing device; and - sectioning the matrix into a plurality of individual matrix sections so as to separate, segment, and/or shape the continuous matrix into a plurality of individual matrix sections devices, device matrixes, test strips, or other individual device sections.