mhurhangee/ep-ind-claims huggingface dataset:
An antimicrobial composition for use in the decolonization of at least a portion of the nasal cavities, anterior nares, and/or nasopharynx of a subject of microorganisms, wherein the antimicrobial composition is to be administered by contacting the nasal cavities, anterior nares, and/or nasopharynx with the antimicrobial composition in an amount effective to kill one or more microorganisms; and wherein the antimicrobial composition comprises: an effective amount of an antimicrobial lipid component comprising a (C7-C12)saturated fatty ether of a polyhydric alcohol, an alkoxylated derivative thereof, or combinations thereof, wherein the alkoxylated derivative has less than 5 moles of alkoxide per mole of polyhydric alcohol; with the proviso that for polyhydric alcohols other than sucrose, the ethers comprise monoethers, and for sucrose the ethers comprise monoethers, diethers, or combinations thereof; an effective amount of an enhancer component comprising an alpha-hydroxy acid, a beta-hydroxy acid, a chelating agent, a (C1-C4)alkyl carboxylic acid, a (C6-C12)aryl carboxylic acid, a (C6-C12)aralkyl carboxylic acid, a (C6-C12)alkaryl carboxylic acid, a phenolic compound, a (C1-C10)alkyl alcohol, an ether glycol, or combinations thereof; a surfactant distinct from the antimicrobial lipid component; a hydrophilic component; a hydrophobic component; and less than 10 wt-% water; wherein the hydrophilic component forms the greatest portion of the composition by weight. an effective amount of an antimicrobial lipid component comprising a (C7-C12)saturated fatty ether of a polyhydric alcohol, an alkoxylated derivative thereof, or combinations thereof, wherein the alkoxylated derivative has less than 5 moles of alkoxide per mole of polyhydric alcohol; with the proviso that for polyhydric alcohols other than sucrose, the ethers comprise monoethers, and for sucrose the ethers comprise monoethers, diethers, or combinations thereof; an effective amount of an enhancer component comprising an alpha-hydroxy acid, a beta-hydroxy acid, a chelating agent, a (C1-C4)alkyl carboxylic acid, a (C6-C12)aryl carboxylic acid, a (C6-C12)aralkyl carboxylic acid, a (C6-C12)alkaryl carboxylic acid, a phenolic compound, a (C1-C10)alkyl alcohol, an ether glycol, or combinations thereof; a surfactant distinct from the antimicrobial lipid component; a hydrophilic component; a hydrophobic component; and less than 10 wt-% water; wherein the hydrophilic component forms the greatest portion of the composition by weight.
Method for producing an intermediate element which can be arranged between a probe pin carrier on the arm of a coordinate measuring machine and a probe pin which is oriented obliquely with respect to the probe pin carrier, namely inclined in a reproducible rotational orientation and additionally in a fixed manner, the intermediate element which is formed with a single-piece main body being produced in such a way that a machine end is formed which has a coupling element (1b1), by way of which the intermediate element can be coupled in a rotationally oriented manner to a matching part on the coordinate measuring machine arm side, and which machine end has a rotational orientation means which is formed in such a way that it ensures a reproducible rotational orientation about a rotational axis (1b2), and in such a way that a probe pin end is formed, on which a planar bearing face (1a1) is produced which is inclined in a fixed manner with respect to the rotational axis (1b2), the method comprising that first of all blanks with a surface which is generally parallel to the axis of the coupling element (1b1) are produced, which blanks have the coupling element which is on the machine side during use after completion, the rotational orientation means and a spherical cap-shaped region where the bearing face (1a1) for the probe pin is to be produced, and the method comprising, furthermore, that the blanks are clamped into and/or placed onto an angle holder, and an inclined bearing face (1a1) is produced on a spherical cap-shaped region by way of milling off of the rotationally oriented blank.
A laser processing machine comprising: a collimating lens for converting a laser beam from a laser oscillator, which emerges from a point of emergence of a transmission optical fiber, into parallel rays of light; a condensing lens operable to collect the laser beam, which has been converted into the parallel rays of light, and then to radiate onto a work to be processed; a nozzle positioned on one side of the work adjacent the condensing lens and operable to discharge an assist gas, a distance from the point of emergence to a tip of the nozzle remaining unchangeable; characterized in that the collimating lens is provided in a plural number, those collimating lenses (7A,7B) being disposed having been spaced from each other in an orthogonal direction perpendicular to an optical axis; and further comprising a switching device for switching a position of each of the collimating lenses in the orthogonal direction so that an arbitrarily chosen one of the plurality of the collimating lenses may have a lens center thereof coinciding with the center of the laser beam emitted from the point of emergence, wherein the plurality of the collimating lenses have respective focal lengths that are different from each other. a collimating lens for converting a laser beam from a laser oscillator, which emerges from a point of emergence of a transmission optical fiber, into parallel rays of light; a condensing lens operable to collect the laser beam, which has been converted into the parallel rays of light, and then to radiate onto a work to be processed; a nozzle positioned on one side of the work adjacent the condensing lens and operable to discharge an assist gas, a distance from the point of emergence to a tip of the nozzle remaining unchangeable; characterized in that the collimating lens is provided in a plural number, those collimating lenses (7A,7B) being disposed having been spaced from each other in an orthogonal direction perpendicular to an optical axis; and further comprising a switching device for switching a position of each of the collimating lenses in the orthogonal direction so that an arbitrarily chosen one of the plurality of the collimating lenses may have a lens center thereof coinciding with the center of the laser beam emitted from the point of emergence, wherein the plurality of the collimating lenses have respective focal lengths that are different from each other.
A compound of formula or a pharmaceutically acceptable salt or solvate thereof; wherein R 1 is H, a straight or branched alkyl, or lower cycloalkyl; R 2 is a lower straight or branched alkyl or lower cycloalkyl; L is an alkylene chain of 4-7 members, an alkenylene chain of 4-7 members, a CH -alkylene chain (the alkylene comprising 4-6 members) or an alkylene-O-alkylene chain (the two alkylene chains together comprising a total of 4-6 members); Rb is H or F; m is an integer of 0 to 2; X is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; n is an integer of 0 to 2; and Ra is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; wherein "lower straight alkyl" is comprising 1 to 6 carbon atoms; "lower branched alkyl" is comprising 3 to 6 carbon atoms and "lower cycloalkyl" is comprising 3 to 6 carbon atoms. R 1 is H, a straight or branched alkyl, or lower cycloalkyl; R 2 is a lower straight or branched alkyl or lower cycloalkyl; L is an alkylene chain of 4-7 members, an alkenylene chain of 4-7 members, a CH -alkylene chain (the alkylene comprising 4-6 members) or an alkylene-O-alkylene chain (the two alkylene chains together comprising a total of 4-6 members); Rb is H or F; m is an integer of 0 to 2; X is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; n is an integer of 0 to 2; and Ra is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; wherein "lower straight alkyl" is comprising 1 to 6 carbon atoms; "lower branched alkyl" is comprising 3 to 6 carbon atoms and "lower cycloalkyl" is comprising 3 to 6 carbon atoms.
Method for generating electrical energy in a combined system made up of a power plant and an air treatment plant, wherein the power plant has a first gas expansion unit, which is connected to a generator for generating electrical energy, and the air treatment plant has an air compression unit, a heat exchanger system and a liquid tank, and wherein in a first operating mode - in the air treatment plant - feed air is compressed in the air compression unit and cooled in the heat exchanger system, - a storage fluid is produced from the compressed and cooled feed air, - the storage fluid is stored as a cryogenic liquid in the liquid tank, and in a second operating mode - cryogenic liquid is taken from the liquid tank and vaporized or pseudo-vaporized at superatmospheric pressure, and the gaseous high-pressure storage fluid generated in the process is expanded in the gas expansion unit, characterized in that, in the second operating mode, - gaseous natural gas is introduced into the heat exchanger system, where it is liquefied or pseudo-liquefied, and - the (pseudo-)vaporization of the cryogenic liquid is carried out in the heat exchanger system. - in the air treatment plant - feed air is compressed in the air compression unit and cooled in the heat exchanger system, - a storage fluid is produced from the compressed and cooled feed air, - the storage fluid is stored as a cryogenic liquid in the liquid tank, - cryogenic liquid is taken from the liquid tank and vaporized or pseudo-vaporized at superatmospheric pressure, and the gaseous high-pressure storage fluid generated in the process is expanded in the gas expansion unit, - gaseous natural gas is introduced into the heat exchanger system, where it is liquefied or pseudo-liquefied, and - the (pseudo-)vaporization of the cryogenic liquid is carried out in the heat exchanger system.
An electrolyte membrane comprising: a polyimide porous web having a porosity of 60% to 90%; and an ion conductor uniformly impregnated in the polyimide porous web, wherein the polyimide porous web has pores of such uniformity that not less than 80% of entire pores of the porous web have a pore diameter which differs from an average pore diameter of the polyimide porous web by not more than 1.5 μm. a polyimide porous web having a porosity of 60% to 90%; and an ion conductor uniformly impregnated in the polyimide porous web, wherein the polyimide porous web has pores of such uniformity that not less than 80% of entire pores of the porous web have a pore diameter which differs from an average pore diameter of the polyimide porous web by not more than 1.5 μm.
An electric supporting rod, comprising: a driving unit, comprising a first outer cylinder and a driver disposed in the first outer cylinder, wherein an opening is defined on one end of the first outer cylinder, the driver comprises a transmission slot disposed on one end thereof facing the opening; and an actuating unit, comprising a second outer cylinder and a transmission screw rod sheathed in the second outer cylinder, wherein the second outer cylinder comprises an insertion part disposed on one end thereof, the transmission screw rod comprises a passive end protruding from the insertion part, and the insertion part comprises a plurality of connection pieces extended therefrom and surrounding the passive end; wherein the insertion part is inserted in the opening and the passive end is engaged with the transmission slot, characterized in that a plurality of elastic latching hooks are convexly disposed on an inner wall of the first outer cylinder and located between the opening and the transmission slot, wherein each of the connection pieces is latched with each of the elastic latching hooks to longitudinally lock the driving unit and the actuating unit. a driving unit, comprising a first outer cylinder and a driver disposed in the first outer cylinder, wherein an opening is defined on one end of the first outer cylinder, the driver comprises a transmission slot disposed on one end thereof facing the opening; and an actuating unit, comprising a second outer cylinder and a transmission screw rod sheathed in the second outer cylinder, wherein the second outer cylinder comprises an insertion part disposed on one end thereof, the transmission screw rod comprises a passive end protruding from the insertion part, and the insertion part comprises a plurality of connection pieces extended therefrom and surrounding the passive end; wherein the insertion part is inserted in the opening and the passive end is engaged with the transmission slot, characterized in that a plurality of elastic latching hooks are convexly disposed on an inner wall of the first outer cylinder and located between the opening and the transmission slot, wherein each of the connection pieces is latched with each of the elastic latching hooks to longitudinally lock the driving unit and the actuating unit.
A method for identifying a genetic element that affects a phenotype of a cell, wherein said phenotype is manifested intracellularly, the method comprising the steps of: (a) Subjecting a pool of cells to mutagenesis treatment; (b) Fixating the pool of cells, preferably with a fixation reagent, and optionally with a cross-linking agent; and permeabilizing the pool of cells, preferably with a permeabilization reagent; (c) Treating the pool of cells with one or more detectable probe(s), preferably an antibody or a RNA probe, to detect the affected phenotype; (d) Sorting the cells based on the detection of at least one of the one or more detectable probe(s) to obtain one or more population of cells; (e) Optionally, de-crosslinking the cells in each of the obtained populations of cells; and (f) Sequencing at least part of the cells of at least part of the obtained populations of cells to identify a genetic element that affects the phenotype of the cell. (a) Subjecting a pool of cells to mutagenesis treatment; (b) Fixating the pool of cells, preferably with a fixation reagent, and optionally with a cross-linking agent; and permeabilizing the pool of cells, preferably with a permeabilization reagent; (c) Treating the pool of cells with one or more detectable probe(s), preferably an antibody or a RNA probe, to detect the affected phenotype; (d) Sorting the cells based on the detection of at least one of the one or more detectable probe(s) to obtain one or more population of cells; (e) Optionally, de-crosslinking the cells in each of the obtained populations of cells; and (f) Sequencing at least part of the cells of at least part of the obtained populations of cells to identify a genetic element that affects the phenotype of the cell.
Household appliance having a container for holding liquids, which is set up in particular to store a detergent and to automatically dose said detergent, and having an electric measuring facility for measuring a fill level of the container, which has two measuring electrodes (10, 11) disposed at a distance from one another in the container, and a circuit arrangement coupled to the measuring electrodes (10, 11), which is configured alternately to apply a positive first potential at one of the measuring electrodes (10, 11) and a positive second potential, which is lower than the first potential, or a potential of 0 volts at the respective other measuring electrode (10, 11), and thus to apply an AC voltage between the measuring electrodes (10, 11) and to measure at least one measurement variable (UM1, UM2, UD) correlated with the AC voltage and with a conductance of a medium present between the measuring electrodes, characterised in that the circuit arrangement has a first switching means, which can be used to couple the first measuring electrode optionally to a first connection, at which a positive first potential is present, or to a second connection, at which a positive second potential, which is lower than the first potential, or a potential of 0 volts is present, and that the circuit arrangement has a second switching means, which can be used to couple the second measuring electrode optionally to the first connection or to the second connection.
A method for digital coating three-dimensional workpiece surfaces, wherein the coating takes place by means of a relative movement of a print head relative to the surface of the workpiece and ejection of a coating agent from the print head towards the workpiece surface, comprising at least the method steps: a) Providing one or more identical workpieces with a three-dimensional workpiece surface profile; b) Determining a target trajectory of the print head over the area of the three-dimensional workpiece surface to be coated, the determination of the target trajectory comprising at least the location- and time-dependent control data for moving the print head on the target trajectory; c) Single or multiple movement of the print head by means of the control data of the target trajectory defined in process step b) and determination of the time- and location-resolved actual position of the print head along the actual trajectory by means of a sensor without ejection of a coating agent; d) Providing target printhead data corresponding to the target trajectory and adapting the target to actual printhead data, the adaptation of the printhead data comprising at least the time and/or location differences between the actual and target trajectories; and e) Moving the print head and coating the workpiece surface while ejecting a coating agent, whereby the print head is moved in accordance with the control data of the target trajectory from process step b) and the coating agent is ejected using the adapted actual print head data from process step d); whereby process step e) is carried out one or more times on identical workpieces, whereby no further adjustment of the control data of the target trajectory is carried out, irrespective of the other actual positions of the print head on the respective trajectories. a) Providing one or more identical workpieces with a three-dimensional workpiece surface profile; b) Determining a target trajectory of the print head over the area of the three-dimensional workpiece surface to be coated, the determination of the target trajectory comprising at least the location- and time-dependent control data for moving the print head on the target trajectory; c) Single or multiple movement of the print head by means of the control data of the target trajectory defined in process step b) and determination of the time- and location-resolved actual position of the print head along the actual trajectory by means of a sensor without ejection of a coating agent; d) Providing target printhead data corresponding to the target trajectory and adapting the target to actual printhead data, the adaptation of the printhead data comprising at least the time and/or location differences between the actual and target trajectories; and e) Moving the print head and coating the workpiece surface while ejecting a coating agent, whereby the print head is moved in accordance with the control data of the target trajectory from process step b) and the coating agent is ejected using the adapted actual print head data from process step d);
A method of creating a printing plate segment for flexographic printing using flexographic plate segments or for letterpress printing comprising: providing a printing plate segment; exposing the printing plate segment with imaging data to form an imaged plate segment (311, 321), the imaging data defining a design area (303, 413) on the imaged plate segment; marking the printing plate segment with one or more registration marks (315, 415) according to marking data, and positioning and mounting the marked imaged plate segment on mounting material, using the one or more registration marks (315, 415) to aid the positioning, such that after printing using the mounted marked imaged plate segment, the marked imaged plate segment with the registration marks thereon can be unmounted, repositioned and remounted using the registration marks to aid the repositioning, to form a newly mounted marked imaged plate segment suitable for printing, characterized in that the one or more registration marks is within the design area (303, 413) in the floor or the back of the printing plate segment (315, 415), the marking such that the one or more registration marks are not visible on a print made from the imaged plate segment (325, 425), wherein the marking and the exposing produce a marked imaged plate segment, wherein the said floor of the printing plate is formed by illuminating the back of the plate to UV radiation, the said floor being a surface below the printing surface such that printing using the positioned and mounted marked image plate segment produces a print without the registration marks visible on the print (325, 425). providing a printing plate segment; exposing the printing plate segment with imaging data to form an imaged plate segment (311, 321), the imaging data defining a design area (303, 413) on the imaged plate segment; marking the printing plate segment with one or more registration marks (315, 415) according to marking data, and positioning and mounting the marked imaged plate segment on mounting material, using the one or more registration marks (315, 415) to aid the positioning, such that after printing using the mounted marked imaged plate segment, the marked imaged plate segment with the registration marks thereon can be unmounted, repositioned and remounted using the registration marks to aid the repositioning, to form a newly mounted marked imaged plate segment suitable for printing, characterized in that the one or more registration marks is within the design area (303, 413) in the floor or the back of the printing plate segment (315, 415), the marking such that the one or more registration marks are not visible on a print made from the imaged plate segment (325, 425), wherein the marking and the exposing produce a marked imaged plate segment, wherein the said floor of the printing plate is formed by illuminating the back of the plate to UV radiation, the said floor being a surface below the printing surface such that printing using the positioned and mounted marked image plate segment produces a print without the registration marks visible on the print (325, 425).
A ventilator medication injection structure comprising: a T-tube having a tube body extending from an inlet to an outlet, with a branch tube being formed on one side of the tube body; a cover having a first tube body formed below a flange, a second tube body formed inside the first tube body such that the second tube body penetrates the flange, and a male screw formed on an outer peripheral surface of the second tube body; and a packing closure having a third tube body formed at a center of a body such that the third tube body is fitted inside the second tube body, a fourth tube body formed on an outside of the third tube body, a female screw formed on the fourth tube body and fastened to the male screw, and a packing which has elasticity and which is disposed inside the body, wherein the first tube body is fitted and assembled to the branch tube, and medication is capable of being injected inside the T-tube with a syringe by piercing the packing with a syringe needle and passing the syringe needle through the third tube body. a T-tube having a tube body extending from an inlet to an outlet, with a branch tube being formed on one side of the tube body; a cover having a first tube body formed below a flange, a second tube body formed inside the first tube body such that the second tube body penetrates the flange, and a male screw formed on an outer peripheral surface of the second tube body; and a packing closure having a third tube body formed at a center of a body such that the third tube body is fitted inside the second tube body, a fourth tube body formed on an outside of the third tube body, a female screw formed on the fourth tube body and fastened to the male screw, and a packing which has elasticity and which is disposed inside the body, wherein the first tube body is fitted and assembled to the branch tube, and medication is capable of being injected inside the T-tube with a syringe by piercing the packing with a syringe needle and passing the syringe needle through the third tube body.