mhurhangee/ep-ind-claims huggingface dataset:
An image recording method comprising: an intermediate image-forming step of forming an intermediate image by applying an ink to an intermediate transfer body; a temperature adjusting step; and a transfer step of transferring the intermediate image onto a recording medium, in this order, wherein the ink comprises polymer particles and a surfactant which is at least one selected from a compound represented by general formula below and a compound represented by general formula below, and in the temperature adjusting step, a temperature of the intermediate image is adjusted to a temperature higher than or equal to a cloud point of the surfactant, where R 1 and R 4 each independently represent a hydrogen atom or an organic group, R 2 and R 3 each independently represent a single bond or an organic group, I and n each independently represent 0 or more, I + n represents 2 or more and 300 or less, and m represents 1 or more and 70 or less, and where R 5 and R 8 each independently represent a hydrogen atom or an organic group, R 6 and R 7 each independently represent a single bond or an organic group, p and r each independently represent 0 or more, p + r represents 2 or more and 70 or less, and q represents 1 or more and 300 or less. an intermediate image-forming step of forming an intermediate image by applying an ink to an intermediate transfer body; a temperature adjusting step; and a transfer step of transferring the intermediate image onto a recording medium, in this order, wherein the ink comprises polymer particles and a surfactant which is at least one selected from a compound represented by general formula below and a compound represented by general formula below, and in the temperature adjusting step, a temperature of the intermediate image is adjusted to a temperature higher than or equal to a cloud point of the surfactant, where R 1 and R 4 each independently represent a hydrogen atom or an organic group, R 2 and R 3 each independently represent a single bond or an organic group, I and n each independently represent 0 or more, I + n represents 2 or more and 300 or less, and m represents 1 or more and 70 or less, and where R 5 and R 8 each independently represent a hydrogen atom or an organic group, R 6 and R 7 each independently represent a single bond or an organic group, p and r each independently represent 0 or more, p + r represents 2 or more and 70 or less, and q represents 1 or more and 300 or less.
A method for treating a lithographic printing plate using an automatic processor comprising the steps of: imagewise exposing a lithographic printing plate precursor; processing using a developer; and carrying out a plate surface treatment using a plate surface treatment agent comprising a vinyl copolymer comprising a monomer unit having at least one group selected from a phosphonic acid group, a phosphoric acid group, a carboxylic acid group, and a salt of these groups and a monomer unit having a betaine structure represented by Formulae (U-7) or (U-8): wherein R 1 denotes a hydrogen atom or an alkyl group; R 2 and R 3 independently denote a hydrogen atom or a monovalent hydrocarbon group; A 4 denotes an (n+1)-valent organic group; the A 5 s independently denote a divalent organic group and n denotes an integer of 1 or more. imagewise exposing a lithographic printing plate precursor; processing using a developer; and carrying out a plate surface treatment using a plate surface treatment agent comprising a vinyl copolymer comprising a monomer unit having at least one group selected from a phosphonic acid group, a phosphoric acid group, a carboxylic acid group, and a salt of these groups and a monomer unit having a betaine structure represented by Formulae (U-7) or (U-8): wherein R 1 denotes a hydrogen atom or an alkyl group; R 2 and R 3 independently denote a hydrogen atom or a monovalent hydrocarbon group; A 4 denotes an (n+1)-valent organic group; the A 5 s independently denote a divalent organic group and n denotes an integer of 1 or more.
A method of depleting a molecule from a solution, comprising contacting the solution with a microtube which comprises an electrospun shell, an electrospun coat over an internal surface of said shell and a member of an affinity pair attached to said microtube, wherein said member of said affinity pair is selected capable of binding the molecule, thereby depleting the molecule from the solution.
A compact burner with both fuel and combustive-air regeneration comprising: a refractory block, a metallic body of the burner, internally coated with an insulating refractory layer, and an ignition device with flame detection, wherein said refractory block is positioned directly facing a combustion chamber of a furnace, wherein said metallic body of the burner comprises a pair of regeneration units (16, 17) both coated by said insulating refractory layer, an intermediate refractory block also being provided, which separates said pair of regeneration units (16, 17) and sealingly collaborates with said refractory block, said pair of regeneration units comprises an air-regeneration unit and a fuel-regeneration unit integrated with each other and supported in said metallic body, said air-regeneration unit and fuel-regeneration unit both being connected to a single combustion pre-chamber of the burner positioned in said refractory block, wherein said combustion pre-chamber of the burner is also connected to said ignition device with flame detection interposed in said two units (16, 17), wherein said air-regeneration unit and fuel-regeneration unit are connected to said combustion pre-chamber of the burner through a respective first and second series of adjacent passages or ducts (30,31) positioned in said refractory block. a refractory block, a metallic body of the burner, internally coated with an insulating refractory layer, and an ignition device with flame detection, wherein said refractory block is positioned directly facing a combustion chamber of a furnace, wherein said metallic body of the burner comprises a pair of regeneration units (16, 17) both coated by said insulating refractory layer, an intermediate refractory block also being provided, which separates said pair of regeneration units (16, 17) and sealingly collaborates with said refractory block, said pair of regeneration units comprises an air-regeneration unit and a fuel-regeneration unit integrated with each other and supported in said metallic body, said air-regeneration unit and fuel-regeneration unit both being connected to a single combustion pre-chamber of the burner positioned in said refractory block, wherein said combustion pre-chamber of the burner is also connected to said ignition device with flame detection interposed in said two units (16, 17), wherein said air-regeneration unit and fuel-regeneration unit are connected to said combustion pre-chamber of the burner through a respective first and second series of adjacent passages or ducts (30,31) positioned in said refractory block.
Operating method for a technical device, - wherein the technical device has at least one electric drive fed from an electrical supply network, - wherein the electric drive is regulated to a set rotation speed (n*), - wherein the electric drive acts on a load so that mechanical energy is removed from or supplied to the electric drive on account of the load, - wherein the load brings about a useful function by means of the mechanical energy removed from or supplied to the electric drive, characterised in that - during the removal or supply of mechanical energy from/to the electric drive and the effects of the useful function of the load associated therewith, a parameter (f) of the electrical supply network is monitored, - the parameter (f) as such or a temporal derivation of the parameter (f) is characteristic of a utilisation of the electrical supply network, - the set rotation speed (n*) of the electric drive is tracked according to a determination provision as a function of a variation in the utilisation of the electrical supply network so that the utilisation of the electrical supply network is stabilised, and - the set rotation speed (n*) is only tracked between a lower rotation speed limit (nmin) and an upper rotation speed limit (nmax) and that the lower rotation speed limit (nmin) is greater than zero. - wherein the technical device has at least one electric drive fed from an electrical supply network, - wherein the electric drive is regulated to a set rotation speed (n*), - wherein the electric drive acts on a load so that mechanical energy is removed from or supplied to the electric drive on account of the load, - wherein the load brings about a useful function by means of the mechanical energy removed from or supplied to the electric drive, - during the removal or supply of mechanical energy from/to the electric drive and the effects of the useful function of the load associated therewith, a parameter (f) of the electrical supply network is monitored, - the parameter (f) as such or a temporal derivation of the parameter (f) is characteristic of a utilisation of the electrical supply network, - the set rotation speed (n*) of the electric drive is tracked according to a determination provision as a function of a variation in the utilisation of the electrical supply network so that the utilisation of the electrical supply network is stabilised, and - the set rotation speed (n*) is only tracked between a lower rotation speed limit (nmin) and an upper rotation speed limit (nmax) and that the lower rotation speed limit (nmin) is greater than zero.
A unit dose of an aqueous solution for nebulized inhalation administration comprising: about 0.01 mL to about 10 mL of a solution of nintedanib salt at a concentration from about 0.1 mg/mL to about 100 mg/mL; wherein the osmolality of the aqueous solution is from about 50 mOsmol/kg to about 2000 mOsmol/kg.
A method for detecting protein crystals, comprising: illuminating a sample with visible-wavelength light by a laser to produce multiphoton excitation in protein crystals; collecting an emission spectrum of intrinsic fluorescence; and comparing the collected spectrum with known spectra of protein crystals to therefore determine whether the sample comprises protein crystals. illuminating a sample with visible-wavelength light by a laser to produce multiphoton excitation in protein crystals; collecting an emission spectrum of intrinsic fluorescence; and comparing the collected spectrum with known spectra of protein crystals to therefore determine whether the sample comprises protein crystals.
Method for monitoring coupling elements of a vehicle, wherein a significant relative movement direction is determined for a coupling element to be monitored, characterised in that relative movements along the significant relative movement direction of the coupling element to be monitored are measured and stored and an evaluation of the stored relative movements takes place.
An electromagnetic switch comprising: stationary electrodes fixed through an outer case; a movable contact arm contactable with or separated from the stationary electrodes; a shaft having an upper end fixed to the movable contact arm; a movable core attached onto a lower portion of the shaft; a stationary core configured to wrap the shaft at a position facing the movable core; an excitation winding wound on the movable core and the stationary core; an upper yoke and a lower yoke configured to shield the excitation winding to form a flow path of a magnetic flux together with the movable core and the stationary core; a wipe spring located between the movable contact arm and the upper yoke to maintain contact pressure between the movable contact arm and the stationary electrodes; and an arc protection member (200, 300) located between the movable contact arm and the upper yoke to shield the shaft for protection, characterized in that the arc protection member (200, 300) is installed to wrap the wipe spring so as to protect internal components from arc generated between the movable contact arm and the stationary electrodes at the moment when the movable contact arm is separated from the stationary electrodes. stationary electrodes fixed through an outer case; a movable contact arm contactable with or separated from the stationary electrodes; a shaft having an upper end fixed to the movable contact arm; a movable core attached onto a lower portion of the shaft; a stationary core configured to wrap the shaft at a position facing the movable core; an excitation winding wound on the movable core and the stationary core; an upper yoke and a lower yoke configured to shield the excitation winding to form a flow path of a magnetic flux together with the movable core and the stationary core; a wipe spring located between the movable contact arm and the upper yoke to maintain contact pressure between the movable contact arm and the stationary electrodes; and an arc protection member (200, 300) located between the movable contact arm and the upper yoke to shield the shaft for protection, characterized in that the arc protection member (200, 300) is installed to wrap the wipe spring so as to protect internal components from arc generated between the movable contact arm and the stationary electrodes at the moment when the movable contact arm is separated from the stationary electrodes.
An actuation system comprising: an actuator assembly comprising an actuator screw shaft on which is mounted an actuator nut, the actuator screw shaft arranged to be rotated in response to an actuator control signal and wherein rotation of the actuator screw shaft causes a relative axial movement of the actuator nut along the shaft, and an actuator position measurement assembly, the actuator position measurement assembly comprising a sensor rotary member arranged to engage and rotate with the actuator screw shaft, and a sensor linearly moveable element mounted on the sensor rotary member that moves axially with respect to the sensor rotary member, and wherein the actuator screw shaft is coupled to the sensor rotary member to cause corresponding rotation of the sensor rotary member; wherein the actuator assembly is coupled to the actuator position measurement assembly via a gear mechanism (100a, 100b); wherein the gear mechanism comprises an actuator gearwheel rotatably coupled to the actuator screw shaft and a sensor gear wheel rotatably coupled to the sensor rotary member, the actuator gear wheel and the sensor gear wheel in intermeshing rotary engagement, characterized in that a linear sensor is coupled to the linearly moveable element to provide an output indicative of the axial position of the linearly moveable element. an actuator assembly comprising an actuator screw shaft on which is mounted an actuator nut, the actuator screw shaft arranged to be rotated in response to an actuator control signal and wherein rotation of the actuator screw shaft causes a relative axial movement of the actuator nut along the shaft, and an actuator position measurement assembly, the actuator position measurement assembly comprising a sensor rotary member arranged to engage and rotate with the actuator screw shaft, and a sensor linearly moveable element mounted on the sensor rotary member that moves axially with respect to the sensor rotary member, and wherein the actuator screw shaft is coupled to the sensor rotary member to cause corresponding rotation of the sensor rotary member; wherein the actuator assembly is coupled to the actuator position measurement assembly via a gear mechanism (100a, 100b); wherein the gear mechanism comprises an actuator gearwheel rotatably coupled to the actuator screw shaft and a sensor gear wheel rotatably coupled to the sensor rotary member, the actuator gear wheel and the sensor gear wheel in intermeshing rotary engagement, characterized in that a linear sensor is coupled to the linearly moveable element to provide an output indicative of the axial position of the linearly moveable element.
A process for manufacturing a filler containing calcium, sodium or magnesium carbonate, characterized by - forming an acidic bicarbonate ion solution from a corresponding hydroxide solution by adding carbon dioxide to the solution, and - forming a carbonate portion of the filler by increasing the pH of the obtained acidic bicarbonate ion solution to a neutral or alkaline range by means of underpressure or centrifugal force or a combination thereof. - forming an acidic bicarbonate ion solution from a corresponding hydroxide solution by adding carbon dioxide to the solution, and - forming a carbonate portion of the filler by increasing the pH of the obtained acidic bicarbonate ion solution to a neutral or alkaline range by means of underpressure or centrifugal force or a combination thereof.
An isolated human brown adipose tissue stem cell line, characterized in that the isolated human brown adipose tissue stem cell line is neonatal and capable of differentiating into neonatal brown adipose differentiated cells in culture medium comprising fibronectin type III domain-containing protein 5 (FNDC5); wherein UCP-1, ELOVL3, and PGC1A gene expression is upregulated in the neonatal brown adipose differentiated cells compared to non-fibronectin type III domain-containing protein 5 (FNDC5) differentiated cells.
A system for presenting a mixed reality experience to one or more users, the system comprising: one or more display devices for the one or more users, each display device including a display unit for displaying a virtual object to the user of the display device; and a computing system (4, 12) operatively coupled to the one or more display devices, the computing system generating the virtual object for display on the one or more display devices, the computing system displaying the virtual object to a user of the one or more users as stationary in a mixed reality environment when the user is moving so that as the user moves around the virtual object the user sees the virtual object from different perspectives, and the computing system rotating the virtual object so that a front of the virtual object faces the user when the user is stationary. one or more display devices for the one or more users, each display device including a display unit for displaying a virtual object to the user of the display device; and a computing system (4, 12) operatively coupled to the one or more display devices, the computing system generating the virtual object for display on the one or more display devices, the computing system displaying the virtual object to a user of the one or more users as stationary in a mixed reality environment when the user is moving so that as the user moves around the virtual object the user sees the virtual object from different perspectives, and the computing system rotating the virtual object so that a front of the virtual object faces the user when the user is stationary.
A linear cutting stapler, comprising an upper jaw and a lower jaw capable of being closed or opened relative to each other, said upper jaw includes an anvil and said lower jaw includes a staple cartridge frame; said staple cartridge frame is detachably provided with a staple cartridge, a cutter pushing rod and a cutter disposed at the distal end of said cutter pushing rod are moveably arranged in said staple cartridge frame, said cutter is capable of moving from a proximal end to a distal end of said staple cartridge with the function of said cutter pushing rod to cut off target tissues between said anvil and said staple cartridge, characterized in that, said linear cutting stapler further comprises a safety piece mounted on said staple cartridge and being capable of moving upward and downward relative to said staple cartridge; said cutter comprises a slot capable of locking said safety piece, a contact part formed above said slot and extending from a distal end to a proximal end of said cutter, and a stopper arranged at a proximal end of said slot, a notch is formed between the proximal end of said contact part and said stopper and defined by said contact part, said stopper and said slot together; while said cutter is placed at the proximal end of said staple cartridge and under an unlocked state, said safety piece is positioned at a first position where it is abutting with the upper wall of said contact part to avoid getting into said slot; after said cutter breaks away from said safety piece, said safety piece is at a free position; and said cutter is capable of returning back to the proximal end of said staple cartridge in the direction from the distal end to the proximal end of said staple cartridge to get into a locked state, said safety piece gets into said slot via said notch to be positioned in a second position where it is stuck in said slot, said safety piece abuts against said stopper if said cutter moves towards the distal end.
A device for an avalanche triggering system, said device being able to cooperate with a blasting chamber of the avalanche triggering system, said device comprising: - a support frame carrying at least one gas storage system and able to be removably mounted on the blasting chamber so as to cover all or part of the blasting chamber; - a spraying chamber secured to the support frame by a fixed proximal end of the spraying chamber, all or part of an inner mixing cavity being delimited by at least one portion of the spraying chamber, a gas mixer in fluid communication with said at least one gas storage system being accommodated in the inner mixing cavity, said gas mixer being configured to make a gaseous mixture from the gas originating from said at least one gas storage system, the spraying chamber further comprising at least one spraying opening configured to enable the passage of the gaseous mixture from the inner mixing cavity towards the outside of the spraying chamber, in particular to supply the blasting chamber; - at least one ignition system configured to trigger an explosion of the gaseous mixture; the spraying chamber comprising a body extending from the fixed proximal end up to a free distal end, said body being able to be contained in a volume of the blasting chamber when the device rests on the blasting chamber, by gravity, in an operating position configuration. - a support frame carrying at least one gas storage system and able to be removably mounted on the blasting chamber so as to cover all or part of the blasting chamber; - a spraying chamber secured to the support frame by a fixed proximal end of the spraying chamber, all or part of an inner mixing cavity being delimited by at least one portion of the spraying chamber, a gas mixer in fluid communication with said at least one gas storage system being accommodated in the inner mixing cavity, said gas mixer being configured to make a gaseous mixture from the gas originating from said at least one gas storage system, the spraying chamber further comprising at least one spraying opening configured to enable the passage of the gaseous mixture from the inner mixing cavity towards the outside of the spraying chamber, in particular to supply the blasting chamber; - at least one ignition system configured to trigger an explosion of the gaseous mixture;
Method for calibrating a membrane vacuum pump for delivering a medium, with a delivery chamber (13, 14) that can be filled with the medium, with a piston in a drive chamber, which piston can be linearly driven by means of a moving coil drive, with a membrane (3, 4), which separates the delivery chamber (13, 14) and the drive chamber and is arranged in a reciprocating manner between the delivery chamber (13, 14) and drive chamber, with a membrane head, which together with the membrane (3, 4) forms the delivery chamber (13, 14), wherein the piston is configured as a piston that sets the membrane (3, 4) in motion and that can be moved over a predetermined path length, characterised in that a device for detecting a dead centre and/or position of the piston is provided, and in that a control device adjusts the dead centre depending on the detected signal of the device.