mhurhangee/ep-ind-claims huggingface dataset:
Compound of formula, a-d-v-y D d A y M 1 b-e M 2 e M 3 v E c-e-y X x+y N e+v Formula where the following applies to the symbols and indices used: AE is selected from the group consisting of Ba or a mixture of Ba and Sr or a mixture of Ba and Ca; D is selected from Eu or a mixture of Eu and Mn, which comprises a maximum of 10 atom-% of Mn with respect to the total amount of AE + Eu + Mn; A is selected from the group consisting of Na, K or mixtures of these elements; M 1 is selected from the group consisting of B, Al, Ga, In, Sc or mixtures of these elements, where M 1 contains Al; M 2 is selected from the group consisting of C, Si, Ge, Sn or mixtures of these elements; M 3 is selected from the group consisting of Y, Lu, La or mixtures of these elements; E is a divalent anion selected from O or mixtures of O and S; X is a monovalent anion selected from F or mixtures of F and Cl; N is a trivalent nitride ion; 0.65 ≤ a ≤ 1; 0 ≤ y ≤ 0.1a where a is as defined above; 0 ≤ v ≤ 0.1a where a is as defined above; 10.667 ≤ b ≤ 11.133; 17.00 ≤ c ≤ 17.35; 0 < d ≤ 1; 0 ≤ x ≤ 5; 0 ≤ e ≤ 5; 0.0584 ≤ a / b ≤ 0.0938; 0.0375 ≤ a / c ≤ 0.0588; 2 ⁢ a + 3 ⁢ b = 2 ⁢ c + x; with the proviso that x ≠ 0 and/or y ≠ 0. AE is selected from the group consisting of Ba or a mixture of Ba and Sr or a mixture of Ba and Ca; D is selected from Eu or a mixture of Eu and Mn, which comprises a maximum of 10 atom-% of Mn with respect to the total amount of AE + Eu + Mn; A is selected from the group consisting of Na, K or mixtures of these elements; M 1 is selected from the group consisting of B, Al, Ga, In, Sc or mixtures of these elements, where M 1 contains Al; M 2 is selected from the group consisting of C, Si, Ge, Sn or mixtures of these elements; M 3 is selected from the group consisting of Y, Lu, La or mixtures of these elements; E is a divalent anion selected from O or mixtures of O and S; X is a monovalent anion selected from F or mixtures of F and Cl; N is a trivalent nitride ion;
Method for manufacturing a cylindrical can body from a polymer coated metal sheet comprising the steps of producing a circular blank from said polymer coated metal sheet, drawing an initial cup from said blank in a cupping step, redrawing said initial cup into a redrawn cup in a redraw step, wherein the redraw step comprises the following substeps: - positioning the initial cup in line with a cylindrical punch of a redraw apparatus; - clamping the circular bottom part of the initial cup between a ring-shaped redraw sleeve surrounding the punch and the redraw die thereby exerting a blank holder force on the bottom part of the initial cup; - pushing the punch through the hole in the redraw die, thereby reducing the diameter of the initial cup to form the redrawn cup and lifting the redraw sleeve, thereby removing the blank holder force, before the edge of the flange of the initial cup enters the operative part of the redraw die, thereby pushing the redrawn cup through the redraw die without a blank holder force being exerted upon the flange; followed by - wall ironing said redrawn cup into a can body having its final height in a wall ironing step, wherein the wall-ironing is performed by using one or more one ironing rings in the wall ironing step, or - drawing the redrawn cup in a second redraw step to produce a can body having its final height. - positioning the initial cup in line with a cylindrical punch of a redraw apparatus; - clamping the circular bottom part of the initial cup between a ring-shaped redraw sleeve surrounding the punch and the redraw die thereby exerting a blank holder force on the bottom part of the initial cup; - pushing the punch through the hole in the redraw die, thereby reducing the diameter of the initial cup to form the redrawn cup and lifting the redraw sleeve, thereby removing the blank holder force, before the edge of the flange of the initial cup enters the operative part of the redraw die, thereby pushing the redrawn cup through the redraw die without a blank holder force being exerted upon the flange; - wall ironing said redrawn cup into a can body having its final height in a wall ironing step, wherein the wall-ironing is performed by using one or more one ironing rings in the wall ironing step, or - drawing the redrawn cup in a second redraw step to produce a can body having its final height.
A method of making a granular herbicidal composition for use in controlling weeds in a turfgrass without causing significant injury to the turfgrass comprising mesotrione coated on or impregnated into a granular substrate material, the method comprising: mixing mesotrione with the granular substrate, wherein the granular substrate is selected from the group consisting of a solid fertilizer granule, an inert solid carrier material, or mixtures thereof, and wherein: if the granular substrate material is a solid fertilizer granule the quantity of mesotrione in the composition ranges from 0.05% to 1 % by weight of the composition, or if the granular substrate material is an inert solid carrier material the quantity of mesotrione in the composition ranges from 0.025 % to 1.by weight of the composition. the method comprising: mixing mesotrione with the granular substrate, wherein the granular substrate is selected from the group consisting of a solid fertilizer granule, an inert solid carrier material, or mixtures thereof, and wherein: if the granular substrate material is a solid fertilizer granule the quantity of mesotrione in the composition ranges from 0.05% to 1 % by weight of the composition, or if the granular substrate material is an inert solid carrier material the quantity of mesotrione in the composition ranges from 0.025 % to 1.by weight of the composition. if the granular substrate material is a solid fertilizer granule the quantity of mesotrione in the composition ranges from 0.05% to 1 % by weight of the composition, or if the granular substrate material is an inert solid carrier material the quantity of mesotrione in the composition ranges from 0.025 % to 1.by weight of the composition.
Use of an adhesive for temporary adhesive bonding of a silicon wafer to a silicon support, the adhesive being a crosslinkable silicone composition which is characterized in that it comprises at least 0.01 to 10 wt% of an adhesion regulator which is a release agent selected from the group of - fatty acid esters which contain between 10 and 60 carbon atoms, with the proviso that - the density (p HR) of the adhesion regulator has at least a density difference of 0.10 g/cm 3 as compared with the density (p s) of the silicone composition and thus - the adhesive force between the cured adhesive and the one substrate is greater by at least 0.5 N/mm than the adhesive force between the cured adhesive and the other substrate, measured according to DIN ISO 813, - and the cured adhesive can be parted adhesively on at least 80% of the area only from one substrate on parting of the bond, and - if (p HR) is smaller than (p s), the adhesion to the top substrate is reduced and - if (p HR) is greater than (p s), the adhesion to the bottom substrate is reduced. - fatty acid esters which contain between 10 and 60 carbon atoms, - the density (p HR) of the adhesion regulator has at least a density difference of 0.10 g/cm 3 as compared with the density (p s) of the silicone composition and thus - the adhesive force between the cured adhesive and the one substrate is greater by at least 0.5 N/mm than the adhesive force between the cured adhesive and the other substrate, measured according to DIN ISO 813, - and the cured adhesive can be parted adhesively on at least 80% of the area only from one substrate on parting of the bond, and - if (p HR) is smaller than (p s), the adhesion to the top substrate is reduced and - if (p HR) is greater than (p s), the adhesion to the bottom substrate is reduced.
A lighting apparatus for hazardous environments, comprising - at least one substantially point-like source of light, - a housing structure for said at least one substantially point-like source of light, defining at least a triple barrier protective encapsulation (1, 3, 7), comprising an outer tube, an inner tube and a core material element inside the inner tube, to seal and insulate said at least one source of light from the environment, and - a detachable closing element at each end of the inner tube and the outer tube comprised in the housing structure, wherein the closing elements hermetically seal the inner tube and the outer tube, wherein the outer tube provides a first barrier of insulation against the environment, the inner tube provides a second barrier of insulation against the environment, and the core material element provides a third barrier of insulation against the environment, wherein said at least one light source is fully encapsulated and sealed by the core material element, and wherein the outer tube, the inner tube and the core material element are optically transmissive to enable light propagation from said at least one source of light to the environment at predefined wavelengths, wherein, in said lighting apparatus, the core material supports said at least one substantially point-like source of light, wherein at least one substantially point-like source of light includes a LED (light emitting diode) strip of a plurality of LEDs. - at least one substantially point-like source of light, - a housing structure for said at least one substantially point-like source of light, defining at least a triple barrier protective encapsulation (1, 3, 7), comprising an outer tube, an inner tube and a core material element inside the inner tube, to seal and insulate said at least one source of light from the environment, and - a detachable closing element at each end of the inner tube and the outer tube comprised in the housing structure, wherein the closing elements hermetically seal the inner tube and the outer tube, wherein the outer tube provides a first barrier of insulation against the environment, the inner tube provides a second barrier of insulation against the environment, and the core material element provides a third barrier of insulation against the environment, wherein said at least one light source is fully encapsulated and sealed by the core material element, and wherein the outer tube, the inner tube and the core material element are optically transmissive to enable light propagation from said at least one source of light to the environment at predefined wavelengths, wherein, in said lighting apparatus, the core material supports said at least one substantially point-like source of light, wherein at least one substantially point-like source of light includes a LED (light emitting diode) strip of a plurality of LEDs.
Section of an exhaust tract of an internal combustion engine having an injection module for injecting a reducing agent into the exhaust tract of an internal combustion engine, wherein an oxidation catalytic converter is arranged upstream of the injection module and a reduction catalytic converter is arranged downstream of the injection module, wherein the injection module is arranged in a connecting duct between the oxidation catalytic converter and the reduction catalytic converter, and wherein the flow direction of the exhaust gases is diverted by the connecting duct, wherein a shield plate is arranged between the injection module and a wall, which is situated opposite the oxidation catalytic converter, of the exhaust tract, which shield plate is designed such that it prevents the spray mist from impinging on that wall of the exhaust tract which is situated opposite the oxidation catalytic converter, wherein the shield plate has one or more openings, characterized in that the injection module has at least two outlet openings for discharging at least one reducing agent primary jet, wherein the outlet openings are directed such that the reducing agent primary jets emerging through the outlet openings collide with one another and produce a spray mist in the exhaust tract, wherein the shield plate extends exclusively between the injection module and that wall of the exhaust tract which is situated opposite the oxidation catalytic converter.
Method of production of lipoplexes for transport of nucleic acids in cell transfection, characterized by comprising the following steps: - Preparation of a cationic lipid system containing a monoolein helper lipid and cationic lipid derived from Dioctadecyldimethylammonium (DODAX) wherein the a molar ratio of monoolein:cationic lipid is between 0.1 and 0.9; - Complexation of the nucleic acid through the addition of a defined volume of the previous cationic lipid system to a constant volume of a nucleic acid solution, at room temperature, for a period equal or superior to 30 minutes, in a culture medium with low bovine serum percentage, forming lipoplexes, wherein the cationic lipid system/nucleic acid charge ratio is between 1:1 and 4:1, preferably 2:1. - Preparation of a cationic lipid system containing a monoolein helper lipid and cationic lipid derived from Dioctadecyldimethylammonium (DODAX) wherein the a molar ratio of monoolein:cationic lipid is between 0.1 and 0.9; - Complexation of the nucleic acid through the addition of a defined volume of the previous cationic lipid system to a constant volume of a nucleic acid solution, at room temperature, for a period equal or superior to 30 minutes, in a culture medium with low bovine serum percentage, forming lipoplexes, wherein the cationic lipid system/nucleic acid charge ratio is between 1:1 and 4:1, preferably 2:1.
A method for producing a granular material of sintered magnesia, characterized in that the sintered magnesia is produced by sintering of pressed articles, in particular pellets, of MgO meal with a grain size ≤ 200 μm, preferably of caustic MgO meal, and subsequent mechanical comminution of the pressed articles, wherein the sintering takes place in such a way that the granular material has a grain porosity (total porosity) according to DIN EN 993-1:1195-04 and DIN EN 993-18:2000-11 of 15 to 38 vol%, preferably 20 to 38 vol%, wherein sintering takes place at a temperature between 1100-1600° C, wherein the firing duration at the maximum temperature is 0.5 h to 7 h, preferably 2 h to 6h, and the temperature regime of the sintering is set in such a way that the granular material has the grain porosity.
Earth protection device for a three-phase electrical apparatus comprising current measurement inputs, a processing unit and a fault detection output, said processing unit comprising: - signal analysis means (6, 7) supplying, for each current phase, a signal (H1, Ixh1, I1h1 I2h1 I3h1), representative of a the fundamental current frequency and a signal (H2, Ixh2) representative of a second current harmonic, and - means for retaining the second harmonic to block the earth fault detection when a second harmonic rate is reached, characterized in that it comprises first means (17, 17A, 17B, 17C, 170, 21-31) for detecting single-phase currents comprising an individual second harmonic rate above a first high threshold to activate the earth fault detection and/or block the actions of said second harmonic retention means. - signal analysis means (6, 7) supplying, for each current phase, a signal (H1, Ixh1, I1h1 I2h1 I3h1), representative of a the fundamental current frequency and a signal (H2, Ixh2) representative of a second current harmonic, and - means for retaining the second harmonic to block the earth fault detection when a second harmonic rate is reached,
A method for forming a beverage, comprising: providing a cartridge having a container with an interior space having first and second chambers (14a, 14b), a rim defining an opening to the interior space, a lid attached to the rim and closing the opening of the container, a filter attached to the lid at a periphery that is spaced inwardly and away from the rim, the filter extending from the periphery into the interior space and separating the first and second chambers (14a, 14b), and a beverage medium in the interior space that is arranged to interact with liquid introduced into the container to form a beverage; piercing the lid near a center of the lid and away from the rim to form a first opening to access the first chamber; introducing liquid into the first chamber via the first opening; forming a beverage by interaction of the liquid with the beverage medium; said method being characterized by piercing the lid to form a second opening to access the second chamber, the second opening being located nearer the rim than the first opening and between the periphery and the rim; and removing the beverage from the cartridge via the second opening while the cartridge is positioned with the lid above the container. providing a cartridge having a container with an interior space having first and second chambers (14a, 14b), a rim defining an opening to the interior space, a lid attached to the rim and closing the opening of the container, a filter attached to the lid at a periphery that is spaced inwardly and away from the rim, the filter extending from the periphery into the interior space and separating the first and second chambers (14a, 14b), and a beverage medium in the interior space that is arranged to interact with liquid introduced into the container to form a beverage; piercing the lid near a center of the lid and away from the rim to form a first opening to access the first chamber; introducing liquid into the first chamber via the first opening; forming a beverage by interaction of the liquid with the beverage medium; piercing the lid to form a second opening to access the second chamber, the second opening being located nearer the rim than the first opening and between the periphery and the rim; and removing the beverage from the cartridge via the second opening while the cartridge is positioned with the lid above the container.
A method of manufacturing a unitary-monolithically formed injection-molding apparatus, the method comprising: freeform fabricating an injection-molding apparatus including at least one melt channel (204; 668, 676; 740); and freeform fabricating a thermocouple junction (200; 528 -528; 712) integrally formed within the injection-molding apparatus. freeform fabricating an injection-molding apparatus including at least one melt channel (204; 668, 676; 740); and freeform fabricating a thermocouple junction (200; 528 -528; 712) integrally formed within the injection-molding apparatus.
Lighting module for a vehicle, the lighting module comprising a cooling circuit comprising: - a first chamber delimited by a first heat dissipation device, and designed for the cooling of at least one first lighting element of the lighting module; - a second chamber delimited by a second heat dissipation device, and designed for the cooling of at least one second lighting element of the lighting module; and - a third chamber delimited by a ventilation device, the third chamber separating the first chamber and the second chamber from one another, wherein the first chamber comprises an input forming an input of the cooling circuit, and an output, and the third chamber comprises an input, formed by the output of the first chamber, and an output, and the second chamber comprises an input, formed by the output of the third chamber, and an output forming an output of the cooling circuit, characterized in that the second heat dissipation device accommodates the ventilation device. - a first chamber delimited by a first heat dissipation device, and designed for the cooling of at least one first lighting element of the lighting module; - a second chamber delimited by a second heat dissipation device, and designed for the cooling of at least one second lighting element of the lighting module; and - a third chamber delimited by a ventilation device, the third chamber separating the first chamber and the second chamber from one another, wherein the first chamber comprises an input forming an input of the cooling circuit, and an output, and the third chamber comprises an input, formed by the output of the first chamber, and an output, and the second chamber comprises an input, formed by the output of the third chamber, and an output forming an output of the cooling circuit, characterized in that the second heat dissipation device accommodates the ventilation device.
A process for stabilising a polymer from Mooney viscosity growth, the method comprising: (i.) polymerizing conjugated diene monomer, optionally with monomer copolymerizable therewith, with an organolithium initiator to provide a polymer cement having living polymer and solvent therein; (ii.) reacting the living polymer with a functionalizing agent including a hydrolyzable group to provide a polymer cement including a functionalized polymer having a hydrolyzable functionality, where the polymer cement thereby includes less than 0.5% of living polymer, based on the total moles of polymer chain, where the polymer cement includes lithium compounds as basic species; (iii.) quenching the polymer cement with a quenching agent; (iv.) introducing a stabilizing agent to the polymer cement, where the stabilizing agent is defined by the formula where χ is a hydrolyzable group that forms an acidic species upon hydrolysis, where R 2, R 3, and R 4 are each independently a halogen atom, a hydrocarbyl group, a hydrocarboxylate group, or a hydrocarbyloxy group, where the stabilizing agent serves to neutralize the basic species within the polymer cement; and (v.) isolating the functionalized polymer from the polymer cement to thereby produce an isolated polymer having increased resistance to Mooney growth. (i.) polymerizing conjugated diene monomer, optionally with monomer copolymerizable therewith, with an organolithium initiator to provide a polymer cement having living polymer and solvent therein; (ii.) reacting the living polymer with a functionalizing agent including a hydrolyzable group to provide a polymer cement including a functionalized polymer having a hydrolyzable functionality, where the polymer cement thereby includes less than 0.5% of living polymer, based on the total moles of polymer chain, where the polymer cement includes lithium compounds as basic species; (iii.) quenching the polymer cement with a quenching agent; (iv.) introducing a stabilizing agent to the polymer cement, where the stabilizing agent is defined by the formula where χ is a hydrolyzable group that forms an acidic species upon hydrolysis, where R 2, R 3, and R 4 are each independently a halogen atom, a hydrocarbyl group, a hydrocarboxylate group, or a hydrocarbyloxy group, where the stabilizing agent serves to neutralize the basic species within the polymer cement; and (v.) isolating the functionalized polymer from the polymer cement to thereby produce an isolated polymer having increased resistance to Mooney growth.
A method for wireless communication, comprising: transmitting a first wireless message comprising a request for a first user terminal to transmit uplink data and an indication of at least one requested operational parameter indicating a traffic identifier, TID, which is used to indicate an access category, and receiving a second wireless message from an access point in response to the first wireless message, the second wireless message indicating whether a plurality of user terminals including the first user terminal is selected to transmit uplink data, the second wireless message indicating at least one operational parameter for transmission of uplink data based on the at least one requested operational parameter. transmitting a first wireless message comprising a request for a first user terminal to transmit uplink data and an indication of at least one requested operational parameter indicating a traffic identifier, TID, which is used to indicate an access category, and receiving a second wireless message from an access point in response to the first wireless message, the second wireless message indicating whether a plurality of user terminals including the first user terminal is selected to transmit uplink data, the second wireless message indicating at least one operational parameter for transmission of uplink data based on the at least one requested operational parameter.