mhurhangee/ep-ind-claims huggingface dataset:
A method for producing N-methyl-para-anisidine in a liquid phase, comprising alkylating para-anisidine with formalin, as formalin and a solution of para-anisidine are separately, simultaneously fed into a mixer disposed in a reactor, directly upstream of a catalytic reduction zone, thus producing an intermediate azomethine, 4-methoxy-(N-phenylmethanimine), and subsequently reducing said intermediate on a hydrogenation catalyst at a temperature of 20-120 °C, in an environment of hydrogen at elevated pressure, and then separating the target product, N-methyl-para-anisidine.
N-((4,6-dimethyl-2-oxo-1,2-dihydropyridin-3-yl)methyl)-5-(ethyl (tetrahydro-2H-pyran-4-yl)amino)-4-methyl-4'-(morpholinomethyl)-[1,1'-biphenyl]-3-carboxamide hydrobromide for use in the treatment of a cell proliferative disorder.
A plate heat exchanger system comprising a plate heat exchanger which includes plates that are welded to each other in connection areas, and one or more erosion protective strips which essentially comprise two legs (5, 6) that receive the plates (3, 4) welded to each other between them, characterized in that the plates (3, 4) and the erosion protective strips comprise shapes that positively correspond to each other, at least in partial areas, wherein the plates (3, 4) comprise elevations or indentations which can positively engage into the elevations or indentations of the erosion protective strips.
A method of producing a chemical, comprising: a chemical production step of culturing cells in a culture solution in a fermentor to ferment a feedstock to produce a chemical, optionally including a gas supply step of supplying a gas containing oxygen to the fermentor; a culture solution supply step of supplying the culture solution containing the chemical produced in the chemical production step to a plurality of separation membrane units arranged in parallel; a filtration step of filtering the culture solution supplied in the culture solution supply step to separate a permeate containing the chemical; a reflux step of refluxing a retentate that is not filtered in the filtration step to the fermentor; and a washing step of supplying a gas containing oxygen to the plurality of separation membrane units while a supply amount of said gas is increased in sequence to perform scrubbing, and the flow rate of the gas supplied to the plurality of separation membrane units is changed to two or more levels and the separation membrane units are sequentially switched for supply of said gas with the largest flow rate, wherein the supply amount and supply time of the gas containing oxygen supplied in the washing step and optionally in the fermentor gas supply step are set so that a volumetric oxygen transfer coefficient kLa value in the fermentor is optimized to be kept constant for fermentation potency in the chemical production step. a chemical production step of culturing cells in a culture solution in a fermentor to ferment a feedstock to produce a chemical, optionally including a gas supply step of supplying a gas containing oxygen to the fermentor; a culture solution supply step of supplying the culture solution containing the chemical produced in the chemical production step to a plurality of separation membrane units arranged in parallel; a filtration step of filtering the culture solution supplied in the culture solution supply step to separate a permeate containing the chemical; a reflux step of refluxing a retentate that is not filtered in the filtration step to the fermentor; and a washing step of supplying a gas containing oxygen to the plurality of separation membrane units while a supply amount of said gas is increased in sequence to perform scrubbing, and the flow rate of the gas supplied to the plurality of separation membrane units is changed to two or more levels and the separation membrane units are sequentially switched for supply of said gas with the largest flow rate, wherein
A method performed by a terminal in a wireless communication system, the method comprising: detecting downlink control information, DCI, including first transmission timing information for feedback; detecting second DCI including second transmission timing information for feedback; the method being characterized by: creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI. detecting downlink control information, DCI, including first transmission timing information for feedback; detecting second DCI including second transmission timing information for feedback; the method being characterized by: creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI. creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI.
Polypropylene composition being a binary blend comprising 2 polypropylene polymer fractions P1 and P2 in specific amounts: 35 to 60 wt% of being a propylene copolymer comprising hexene-derived comonomer units in an amount of 0.5 to 2.5 wt% and 65 to 40 wt% of being a propylene terpolymer comprising hexene-derived comonomer units in an amount of 4.0 to 10.0 wt% and ethylene-derived comonomer units in an amount of 0.1 to 1.0 wt%, and whereby the composition is characterized by (i) a ratio of the hexene content of polymer fraction P2 to polymer faction P1 between 2.5 and 8.0 (ii) a ratio of the total hexane amount of the composition to the hexene amount of polymer fraction P1 between 1.5 and 4.0 (ii) a melt flow rate MFR2 (230 °C) measured according to ISO 1133 in the range of 2.0 to 15.0 g/10min, (iii) a melting temperature Tm as determined by DSC according to ISO 11357 of from 128°C to 145°C, (iv) a crystallization temperature T c as determined as determined by DSC according to ISO 11357 of from 82°C to 110°C and (v) a hexane solubles content determined in accordance with FDA section 177.1520 of at most 1.0 wt% (vi) and an amount of xylene cold soluble in the range of 10 to 40 wt% determined at 25 °C according ISO 16152; first edition; 2005-07-01. 35 to 60 wt% of being a propylene copolymer comprising hexene-derived comonomer units in an amount of 0.5 to 2.5 wt% and 65 to 40 wt% of being a propylene terpolymer comprising hexene-derived comonomer units in an amount of 4.0 to 10.0 wt% and ethylene-derived comonomer units in an amount of 0.1 to 1.0 wt%, and whereby the composition is characterized by (i) a ratio of the hexene content of polymer fraction P2 to polymer faction P1 between 2.5 and 8.0 (ii) a ratio of the total hexane amount of the composition to the hexene amount of polymer fraction P1 between 1.5 and 4.0 (ii) a melt flow rate MFR2 (230 °C) measured according to ISO 1133 in the range of 2.0 to 15.0 g/10min, (iii) a melting temperature Tm as determined by DSC according to ISO 11357 of from 128°C to 145°C, (iv) a crystallization temperature T c as determined as determined by DSC according to ISO 11357 of from 82°C to 110°C and (v) a hexane solubles content determined in accordance with FDA section 177.1520 of at most 1.0 wt% (vi) and an amount of xylene cold soluble in the range of 10 to 40 wt% determined at 25 °C according ISO 16152; first edition; 2005-07-01. (i) a ratio of the hexene content of polymer fraction P2 to polymer faction P1 between 2.5 and 8.0 (ii) a ratio of the total hexane amount of the composition to the hexene amount of polymer fraction P1 between 1.5 and 4.0 (ii) a melt flow rate MFR2 (230 °C) measured according to ISO 1133 in the range of 2.0 to 15.0 g/10min, (iii) a melting temperature Tm as determined by DSC according to ISO 11357 of from 128°C to 145°C, (iv) a crystallization temperature T c as determined as determined by DSC according to ISO 11357 of from 82°C to 110°C and (v) a hexane solubles content determined in accordance with FDA section 177.1520 of at most 1.0 wt% (vi) and an amount of xylene cold soluble in the range of 10 to 40 wt% determined at 25 °C according ISO 16152; first edition; 2005-07-01.
A wind power installation comprising a pylon having at least one lower pylon segment, a previously manufactured fire protection module for receiving a transformer in fire-resistant relationship, wherein the fire protection module is placed within the lower pylon segment, wherein the fire protection module is configured as a precast concrete component and can be transported together with the transformer, wherein the fire protection module has a transport securing system (360, 375) for securing the transformer within the fire protection module during a transport operation of the fire protection module.
A composition comprising a mixture of: (a) a solvent, wherein the solvent is organic solvent or water; (b) a binder, wherein the binder is selected from the group consisting of silicates, aluminates, zirconates, lanthanates, phosphates and combinations thereof or an RTV silicone; (c) a multiplicity of particles, wherein the particles are selected from the group consisting of ceramic hollow spheres, hollow glass microspheres, alumina hollow particles, zirconia particles, titania particles, and combinations thereof; (d) a multiplicity of fibers, wherein the fibers comprise a material selected from the group consisting of ceramic materials, zirconia, titania, silicon carbide, silicon oxide carbide, zirconia oxycarbide, carbon fibers, and combinations thereof; and (e) a nanofoam, wherein the nanofoam is selected from the group consisting of silica nanofoams, alumina nanofoams, mixed metal oxide nanofoams, organic nanofoams, carbon nanofoams, micro-porous solid nanofoams, nano-porous solid nanofoams, and combinations thereof, wherein the composition is operable as a thermal protective coating under transient, extreme-temperature excursion conditions and wherein the composition may be applied to a surface of an object by spraying, screening, trowelling, slot die coating, cast coating, extrusion or a combination thereof to form said thermal protective coating. (a) a solvent, wherein the solvent is organic solvent or water; (b) a binder, wherein the binder is selected from the group consisting of silicates, aluminates, zirconates, lanthanates, phosphates and combinations thereof or an RTV silicone; (c) a multiplicity of particles, wherein the particles are selected from the group consisting of ceramic hollow spheres, hollow glass microspheres, alumina hollow particles, zirconia particles, titania particles, and combinations thereof; (d) a multiplicity of fibers, wherein the fibers comprise a material selected from the group consisting of ceramic materials, zirconia, titania, silicon carbide, silicon oxide carbide, zirconia oxycarbide, carbon fibers, and combinations thereof; and (e) a nanofoam, wherein the nanofoam is selected from the group consisting of silica nanofoams, alumina nanofoams, mixed metal oxide nanofoams, organic nanofoams, carbon nanofoams, micro-porous solid nanofoams, nano-porous solid nanofoams, and combinations thereof, wherein the composition is operable as a thermal protective coating under transient, extreme-temperature excursion conditions and wherein the composition may be applied to a surface of an object by spraying, screening, trowelling, slot die coating, cast coating, extrusion or a combination thereof to form said thermal protective coating.
Assembly for closing a tube, said assembly comprising: - a tube head comprising a neck and a lid blocking said neck, - a cap comprising a stamp provided with three teeth, said teeth being configured to cut said lid, said stamp having a distal end provided with said teeth, said cap being configured to pass from a position in which said teeth are flush with said lid, called flush position, to a position in which said teeth have pierced said lid, called piercing position, then from said piercing position to an end position allowing a partial cutting of said lid, the passage from said piercing position to said end position being carried out with an angular amplitude of rotation, less than 360°, characterised in that said teeth are regularly distributed over 180° and separated from one another by 90°, said teeth having a decreasing height in, during its use, the opposite direction of rotation of the cap, said teeth being angularly spaced apart from one another and configured such that their angular course overlaps between said piercing position and said end position. - a tube head comprising a neck and a lid blocking said neck, - a cap comprising a stamp provided with three teeth, said teeth being configured to cut said lid, said stamp having a distal end provided with said teeth, said cap being configured to pass from a position in which said teeth are flush with said lid, called flush position, to a position in which said teeth have pierced said lid, called piercing position, then from said piercing position to an end position allowing a partial cutting of said lid, the passage from said piercing position to said end position being carried out with an angular amplitude of rotation, less than 360°, characterised in that said teeth are regularly distributed over 180° and separated from one another by 90°, said teeth having a decreasing height in, during its use, the opposite direction of rotation of the cap, said teeth being angularly spaced apart from one another and configured such that their angular course overlaps between said piercing position and said end position.
Method for maintaining and regulating frequency around the natural frequency (ω0) of a timepiece resonator mechanism including at least a first balance/balance spring assembly, whose balance spring is held between a stud at a first, outer end and a collet of a balance at a second, inner end, wherein said method implements at least one regulating device acting on said resonator mechanism with a periodic motion, wherein said periodic motion imposes a periodic modulation of at least the position of the rest point of said resonator mechanism, with a regulating frequency (ωR) of said regulating device that is comprised between 0.9 times and 1.1 times the value of an integer multiple of said natural frequency (ω0), said integer being greater than or equal to 2, wherein said periodic motion imposes said periodic modulation of the position of the rest point of said resonator mechanism by modulating the position of at least one of the points of attachment of said resonator mechanism, wherein said regulating device is made to act to periodically modify, either the position of the point of attachment of said balance spring to said collet, or both a degree of freedom of the pinning point of said balance spring to said stud and the position of the point of attachment of said balance spring to said collet, characterized in that a first balance/balance spring assembly is used, which oscillates at said natural frequency (ω0) and performs the counting function, and a second balance/balance spring assembly which forms said regulating device and oscillates at said regulating frequency (ωR) and performs the energy supply function, and in that said first balance/balance spring assembly and said second balance/balance spring assembly are connected by forming said collet, to which is attached said balance spring of said first balance/balance spring assembly, consisting of the rim of said second balance/balance spring assembly.
The method of disposal of radioactive waste, containing cobalt, neodymium, strontium or cesium, to be approved by, permanently embeded it into silica glass, characterized in that, cobalt neodymium, strontium or cesium nitrates solution in ethanol, is added to tetraethoxysilane (TEOS), a bright blend thereof in the case of cobalt and neodymium nitrates, dilute in ethanol, and then ascorbic acid solution, dropwise in case of cesium or strontium nitrates, after which the mixture is mixed at room temperature for 2 to 5 hours, favorably for 4 hours, leading a preliminary hydrolysis, then obtained silica-hydroxy-nitrate-ascorbic acid sol with cobalt, neodymium, strontium or cesium, undergo further hydrolysis, in the second stage of hydrolysis and polymerization, at a temperature of 40°C - 80°C, favorably 70°C and then it is evaporated to dryness under reduced pressure 0.1 MPa, and obtained gel is subjected to a heat treatment in a 1200°C, favorably by approximately 4 hours from the heating rate of 2 °C/min to the receipt of the final product silica glass with cobalt, neodymium, strontium or cesium permanently built into its structure.
Sealing profile for sealing a movable vehicle window pane at a bent upper leg of a frame enclosure, having at least one sealing lip which projects from a U-leg of a U-shaped sealing portion at a distance from the neutral bending surface, which extends corresponding to a longitudinal section through the sealing profile, of the bent laid sealing profile, into which sealing portion the vehicle window pane can be inserted by its upper edge parallel to the U-legs (7, 8), wherein the sealing lip is widened to one side with respect to a starting thickness which it has at its end facing the U-profile leg, and the boundary line, which faces away from this side, of the cross-sectional surface of the sealing lip runs out towards its free end in a sickle-shaped manner, characterized in that the transverse leg of the U-shaped sealing portion forms a U-leg of a U-shaped fastening portion, which has a metallic reinforcing insert, of the sealing profile for connection to a vehicle body flange, in that the U-shaped sealing portion has a long U-profile leg and a short profile leg, and the long U-profile leg of the sealing portion has, at its end facing away from the U-shaped fastening portion, a further fastening portion for connection to a further vehicle body flange, in that the sealing lip projects from the part of the long U-profile leg that is longer than the short U-profile leg, and in that the sealing lip has, on its side facing away from the widening, a sliding layer which is co-extruded with the remaining sealing profile, in that the sliding layer consists of a thermoplastic or thermoplastic elastomer which is harder than a thermoplastic elastomer from which the remaining sealing profile is produced, and in that the sliding layer, with avoidance of wave-like deformation of the sealing lip during the bending of the sealing profile, reaches at maximum to a minimum rounding radius at the free end of the sealing lip.
A dose counter (36, 516) for an inhaler (12, 510), the dose counter (36, 516) having a counter display arranged to indicate dosage information, a first station and a second station, a substantially rotationally fixed element, and a drive system arranged to move the counter display incrementally in a first direction from the first station to the second station in response to actuation input, wherein a regulator (124,126,300) is provided which is arranged to act upon the counter display at the first station to regulate motion of the counter display at the first station to incremental movements, wherein the first station comprises a first shaft (110, 5144) mounted for rotation relative to the substantially rotationally fixed element, and wherein the regulator (124,126,300) comprises at least one projection (128,130, 5146) on one of the first shaft (110, 5144) and the substantially rotationally fixed element, characterised in that the regulator further comprises one or more formations (302,304) on the other of the substantially rotationally fixed element and the first shaft and wherein the at least one projection (128,130, 5146) is arranged to engage incrementally with the one or more formations (302,304).
A method for planning radiation therapy (200, 600), the method comprising: - receiving patient data (210, 610) of a subject to be treated; receiving image data (220, 620) of the subject to be treated, which image data comprises anatomical image data of one or more organs at risk associated with the functioning of the immune system; - processing the patient data and the image data to obtain a risk score (230, 630, 350) for the one or more organs at risk associated with the functioning of the immune system, which risk score is indicative of the risk of hematologic toxicity in the subject to be treated in response to the radiation therapy; and - planning a radiation therapy treatment (240, 660) using the obtained risk score to reduce the risk of hematologic toxicity in the subject to be treated. - receiving patient data (210, 610) of a subject to be treated; receiving image data (220, 620) of the subject to be treated, which image data comprises anatomical image data of one or more organs at risk associated with the functioning of the immune system; - processing the patient data and the image data to obtain a risk score (230, 630, 350) for the one or more organs at risk associated with the functioning of the immune system, which risk score is indicative of the risk of hematologic toxicity in the subject to be treated in response to the radiation therapy; and - planning a radiation therapy treatment (240, 660) using the obtained risk score to reduce the risk of hematologic toxicity in the subject to be treated.
Device for active moistening of the respiratory air in respiration of patients by means of a mask or a tube and/or a tracheal cannula, consisting of an extension element (1, 2) for passage of the respiratory air through an exterior respiratory opening, wherein the extension element (1, 2) is designed in two parts, comprising an upper part for the respiratory air and a lower part as the connecting element with a mixing chamber connected in between, wherein the mixing chamber has a feed connected to the respirator air humidifier, which is disposed at an acute angle to the upper part of the extension element, and also the respiratory air humidifier is connected to a regulable pressure source and has a controllable heating element, characterized in that the upper part of the extension element protrudes into the mixing chamber to form an annular space and has as a connecting element at a distance from a lower part of the extension element connected to the mixing chamber, and an inlet gap is formed from the mixing chamber is formed by the upper part of the extension element.