mhurhangee/ep-ind-claims huggingface dataset:
Exterior trim part for a vehicle, with a fibrous porous structural layer, wherein the fibrous porous structural layer consists of staple fibres, wherein at least 50%, preferably between 70% and 100%, of the staple fibres comprise a first polymer made of modified polyester, such as CoPET, with a melting temperature between 150°C and 240°C, preferably between 190 °C and 240°C, wherein the exterior trim part further comprises at least one perforated film layer, characterised in that the perforated film layer is made of non-foamed thermoplastic polyurethane with a melting temperature according to Differential Scanning Calorimetry of at least 140°C and which is materially connected to said fibrous porous structural layer.
A polyolefin microporous membrane having a puncture elongation of not more than 2.30 mm, a temperature at the stress inflection point of not less than 80.0 °C, and a stress peak value of not more than 1.8 g in thermomechanical analysis measurement of the transverse direction, wherein said puncture elongation, temperature at the stress inflection point, and stress peak value are determined as described in the description.
Method for dredging an underwater bottom in an area using a dredging device, comprising the following steps, taking place via a digital network (40, 41) under the control of a computer, of: a) determining the present positions of the dredging device and of a source of contamination in the area; b) entering input data (10, 20, 11, 12) relating to the area into a hydrodynamic model of the area; c) determining with the hydrodynamic model the degree of contamination at positions in the area resulting from spread of the contamination from the source; d) comparing the degree of contamination at positions in the area to a threshold value for these positions; and e) adapting the dredging if the degree of contamination exceeds the threshold value, wherein the present or a foreseen future position of the dredging device is adapted. a) determining the present positions of the dredging device and of a source of contamination in the area; b) entering input data (10, 20, 11, 12) relating to the area into a hydrodynamic model of the area; c) determining with the hydrodynamic model the degree of contamination at positions in the area resulting from spread of the contamination from the source; d) comparing the degree of contamination at positions in the area to a threshold value for these positions; and e) adapting the dredging if the degree of contamination exceeds the threshold value,
A recombinant chimeric arginine deiminase comprising a catalytic domain of an ADI protein derived from a first microorganism and an α-helical domain of an ADI protein derived from a second microorganism, wherein the first microorganism is selected from the group consisting of Mycoplasma gallinarum, Mycoplasma iners, and Mycoplasma columbinum and wherein the second microorganism is selected from the group consisting of Mycoplasma gallinarum, Mycoplasma iners, and Mycoplasma columbinum.
A dental adhesive composition which is acidic and contains an acidic group-containing polymerizable monomer, polyvalent metal ions, water, a water-soluble organic solvent and fluoride ions, wherein: - at least 35% by mole of said acidic group-containing polymerizable monomer is a polymerizable monomer having a hydrogenphosphoric diester group (A-1); - not less than 60% by mole of said polyvalent metal ions are trivalent metal ions; and - the contents of said fluoride ions and said polyvalent metal ions are so set that a valence number ratio (R F) defined by the following formula: R F = V F / TV P wherein, V F is a valence number of the fluoride ions contained in the composition, and TV P is a total valence number of the polyvalent metal ions contained in the composition, satisfies a range of 0.3 to 1.0. - at least 35% by mole of said acidic group-containing polymerizable monomer is a polymerizable monomer having a hydrogenphosphoric diester group (A-1); - not less than 60% by mole of said polyvalent metal ions are trivalent metal ions; and - the contents of said fluoride ions and said polyvalent metal ions are so set that a valence number ratio (R F) defined by the following formula: R F = V F / TV P wherein, V F is a valence number of the fluoride ions contained in the composition, and TV P is a total valence number of the polyvalent metal ions contained in the composition, satisfies a range of 0.3 to 1.0. V F is a valence number of the fluoride ions contained in the composition, and TV P is a total valence number of the polyvalent metal ions contained in the composition,
A non-aqueous solution comprising: a) a plant growth regulator mixture of indole-3-butyric acid in an amount of 0.005 to 0.05 wt.%, GA 3 in an amount of 0.003 to 0.1 wt.%, and kinetin in an amount of 0.009 to 0.1 wt.%; b) an organic solvent that is propylene glycol; and c) optionally at least one mineral, optionally at least one surfactant, optionally at least one antifoam, optionally at least one preservative, and optionally combinations thereof, wherein said non-aqueous solution includes ≤ 1 wt.% water. a) a plant growth regulator mixture of indole-3-butyric acid in an amount of 0.005 to 0.05 wt.%, GA 3 in an amount of 0.003 to 0.1 wt.%, and kinetin in an amount of 0.009 to 0.1 wt.%; b) an organic solvent that is propylene glycol; and c) optionally at least one mineral, optionally at least one surfactant, optionally at least one antifoam, optionally at least one preservative, and optionally combinations thereof, wherein said non-aqueous solution includes ≤ 1 wt.% water.
Method for burning and cooling material, such as carbonate rocks, in a parallel flow -counter flow regenerative shaft kiln having two shafts (12, 14) which are operated alternately as a burning shaft and as a regenerative shaft, wherein the material flows through a preheating zone (32, 34), at least one burning zone (50, 52), and a cooling zone (60, 62) to a material outlet (24, 26), characterized in that fuel is supplied inside or above the preheating zone (32, 34), and therefore the fuel is heated in the preheating zone (32, 34) prior to entry into the burning zone (50, 52).
A lighting unit for a headlight, particularly a motor vehicle headlight, wherein the lighting unit comprises a plurality of light sources, a light guide unit, and a downstream projection lens, wherein the light guide unit has a plurality of light guides, wherein each light guide has a light extraction surface and a light injection surface, in each instance, and wherein each light source injects light precisely into one light guide assigned to it, by way of a light injection surface, in each instance, characterized in that light guide rods are disposed between the light sources and the light injection surfaces of the light guides, which light guide rods are combined into at least one light guide rod package, wherein a plurality of light guide rods is assigned to each light source, and wherein each light source injects light essentially exclusively into the light guide rod injection sites of the light guide rods assigned to the respective light source, and wherein the light from an assigned light source exiting from the light guide rod extraction sites is injected essentially exclusively into the light injection surface of the light guide assigned to the respective light source.
A laser-engravable patternable material for providing a relief image, the laser-engraveable patternable material comprising at least one elastomeric, relief-forming, laser-engravable layer comprising a thermoplastic elastomeric nanocrystalline polyolefin in an amount of at least 50 weight % and up to and including 98 weight % based on the total dry elastomeric, relief-forming laser-engraveable layer weight, wherein the elastomeric relief-forming, laser-engraveable layer is free of polymers containing pendant aromatic groups, is free of chemical crosslinking as it comprises less than 0.1 weight % of chemical crosslinking agents, and has G' and G" moduli that decrease continuously with a decrease in the frequency of oscillation when plotted logarithmically, at a temperature above the melting temperature of the elastomeric, relief-forming, laser-engraveable layer.
A method of producing containers filled with liquid, in particular beverage containers, wherein plastics material pre-forms are shaped to form plastics material containers by means of a shaping device, these plastics material containers are conveyed to a filling device and are filled with a liquid by means of this filling device, wherein the containers are cooled on their conveying path between the shaping device and the filling device at least in sections by being acted upon with a liquid medium, wherein the containers are conveyed at least during the filling inside a clean room which is bounded off from an environment by means of a sealing device, characterized in that the at least one clean room is sealed off by the use of a sterile liquid conveyed in a continuous duct (62a, 62b, 72a, 72b), and the liquid from this duct (62a, 62b, 72a, 72b) is also used in order to cool the containers.
Solar installation having a support and having a support frame for solar modules, which are combined to form a solar panel, which support frame can be pivoted on the support about an elevation axis and which support frame forms, with respect to the elevation axis, a bottom section on the ground side and an adjoining top section, whose width extension (L 2) perpendicular to the elevation axis is greater than the width extension (L 1) of the bottom section, characterized in that, while the bottom section is at least largely wind-impermeable, the top section of the solar panel has flow passage openings at least between groups of solar modules.
Roller blind, in particular for installing at a building opening, having a plurality of slats which are coupled to one another and which each have at least one bore that is penetrated by a flexible cable, in particular a wire cable, on which the slats are held at a distance from one another, wherein the slats are held on the cable in such a way that no holding element is arranged and visible on the cable in the region between the slats, characterized in that the slats are fixed to the cable by means of a stamping in the region of the bore, by which material of the slat is pressed against the cable.
A method for separating parts during a manufacturing process, wherein said parts rest on a separating surface constituted by a support and a sound generating apparatus for generating sound waves and mechanically decoupled from the support is provided, wherein said parts are moved by a sound wave emitted by said sound generating apparatus exciting at least a portion of said separating surface such that it moves.
A three-dimensional molding equipment comprising: a powder supply equipment configured to perform a laminating process to form a powder layer; and a light beam or electron beam scanning unit configured to perform a sintering process to radiate a light beam or an electron beam to the powder layer and move a radiated location of the light beam or the electron beam to sinter the powder layer in response to a scanning instruction from a controller, wherein the laminating process and the sintering process are configured to alternately repeat, and a region used for manufacturing a three-dimensional shaped molding object is divided into a plurality of regions (A, B, C, D), and a plurality of the light beam or electron beam scanning units corresponding to each respective divided region radiates to the plurality of divided regions (A, B, C, D), characterized in that the divided regions (A, B, C, D) are formed with preliminary calculation by the controller such that respective divided regions (A, B, C, D) have an equal-length molding path which is to be a scanning route of the light beam or the electron beam.
A vertical door latch assembly comprising: a bolt having a catch portion located adjacent a distal end of the bolt, wherein the bolt is slidable relative to a bolt housing to allow the bolt to engage an aperture; a latch having a retention feature for engaging the catch portion of the bolt, wherein a profile of the bolt catch portion matches a profile of the retention feature to ensure a locking engagement between the bolt catch portion and the retention feature to prevent the bolt from being removed from the aperture; an electro-mechanical locking assembly for securing the latch between a locking position preventing movement of the bolt and a non-locking position allowing movement of the bolt, wherein the electro-mechanical locking assembly includes an electro-mechanical actuator for engaging the latch; and a controller in electrical communication with the electro-mechanical locking assembly and configured to direct the electro-mechanical locking assembly between the locking position and the non-locking position. a bolt having a catch portion located adjacent a distal end of the bolt, wherein the bolt is slidable relative to a bolt housing to allow the bolt to engage an aperture; a latch having a retention feature for engaging the catch portion of the bolt, wherein a profile of the bolt catch portion matches a profile of the retention feature to ensure a locking engagement between the bolt catch portion and the retention feature to prevent the bolt from being removed from the aperture; an electro-mechanical locking assembly for securing the latch between a locking position preventing movement of the bolt and a non-locking position allowing movement of the bolt, wherein the electro-mechanical locking assembly includes an electro-mechanical actuator for engaging the latch; and a controller in electrical communication with the electro-mechanical locking assembly and configured to direct the electro-mechanical locking assembly between the locking position and the non-locking position.
A Pseudomonas exotoxin A comprising a PE amino acid sequence, wherein amino acid residue D463, as defined by reference to SEQ ID NO: 1, is substituted, wherein the PE has cytotoxic activity and is less immunogenic than unsubstituted PE, wherein (i) the PE has further substitutions of amino acid residues R427, R467, R490, R505, and R538, as defined by reference to SEQ ID NO: 1, or (ii) the PE has further substitutions of amino acid residues R427, R458, R467, R490, R505, and R538, as defined by reference to SEQ ID NO: 1. (i) the PE has further substitutions of amino acid residues R427, R467, R490, R505, and R538, as defined by reference to SEQ ID NO: 1, or (ii) the PE has further substitutions of amino acid residues R427, R458, R467, R490, R505, and R538, as defined by reference to SEQ ID NO: 1.
A pulse electrochemical machining electrode tool (200, 200') to machine extrusion die cavities, the electrode tool (200, 200') comprising: a base (212, 242); a plurality of intersecting walls (208, 238) extending from the base (212, 242) to a distal end; an electrically insulating coating disposed on the plurality of intersecting walls (208, 238); an erosion face (204, 234) comprising a cross section of the walls (208, 238) exposed through the electrically insulating coating at the distal end; and channels (224, 228, 250) formed by the plurality of intersecting walls (208, 238) and providing through openings at the erosion face (204, 234), a chamber at a back surface of the base (212, 242), wherein the channels (224, 228, 250) provide a conduit for electrolyte from the chamber to the openings. a base (212, 242); a plurality of intersecting walls (208, 238) extending from the base (212, 242) to a distal end; an electrically insulating coating disposed on the plurality of intersecting walls (208, 238); an erosion face (204, 234) comprising a cross section of the walls (208, 238) exposed through the electrically insulating coating at the distal end; and channels (224, 228, 250) formed by the plurality of intersecting walls (208, 238) and providing through openings at the erosion face (204, 234), a chamber at a back surface of the base (212, 242), wherein the channels (224, 228, 250) provide a conduit for electrolyte from the chamber to the openings.
A dryer fabric having a longitudinal direction and a cross direction and a first surface and a second surface, the dryer fabric extending in the longitudinal direction from a first end to a second end and in the cross direction from a first edge to a second edge, the dryer fabric comprising: - a weft comprising cross machine direction yarns, - a double warp, the double warp comprising a first warp comprising first machine direction yarns and a second warp comprising second machine direction yarns, the yarns of the first warp being arranged above the yarns of the second warp on the first surface side in the thickness direction of the dryer fabric, the first warp comprises primary yarns whose breaking load remains substantially stable within 15 days in conditions where RH = 100 %, T = 125°C and p = 2.3 bar, - a first seam-forming counterpart at the first end and a second seam-forming counterpart at the second end, characterized in that the first warp comprises secondary yarns in such a manner that at least every second yarn of the first warp is a secondary yarn, the secondary yarns have a breaking load that is initially higher than the breaking load of the primary yarns but the breaking load of the secondary yarns decrease within 15 days in conditions where RH = 100 %, T = 125°C and p = 2.3 bar. - a weft comprising cross machine direction yarns, - a double warp, the double warp comprising a first warp comprising first machine direction yarns and a second warp comprising second machine direction yarns, the yarns of the first warp being arranged above the yarns of the second warp on the first surface side in the thickness direction of the dryer fabric, the first warp comprises primary yarns whose breaking load remains substantially stable within 15 days in conditions where RH = 100 %, T = 125°C and p = 2.3 bar, - a first seam-forming counterpart at the first end and a second seam-forming counterpart at the second end,
A composition comprising a) the S-isomer of the Formula (1.1) compound, or a pharmaceutical or veterinary acceptable salt thereof; b) moxidectin and c) pyrantel pamoate.
A cell cartridge, comprising: a first pouch cell having a first fixing portion extending out of a sealing portion of the first pouch cell; a second pouch cell having a second fixing portion extending out of a sealing portion of the second pouch cell; and a cartridge configured to accommodate a cell stack formed by stacking the first pouch cell and the second pouch cell, wherein the first fixing portion is bent toward the second pouch cell to restrict movement of the second pouch cell, and wherein the second fixing portion is bent toward the first pouch cell to restrict movement of the first pouch cell. a first pouch cell having a first fixing portion extending out of a sealing portion of the first pouch cell; a second pouch cell having a second fixing portion extending out of a sealing portion of the second pouch cell; and a cartridge configured to accommodate a cell stack formed by stacking the first pouch cell and the second pouch cell, wherein the first fixing portion is bent toward the second pouch cell to restrict movement of the second pouch cell, and wherein the second fixing portion is bent toward the first pouch cell to restrict movement of the first pouch cell.
A method for replicating data across a network from a first network connected data storage device to a second network connected data storage device, the method comprising: periodically transmitting sample data from the first network connected data storage device to the second network connected data storage device to obtain a measurement indicative of bandwidth throughput between the first and second network connected data storage devices; comparing the measurement indicative of bandwidth throughput with a predetermined policy indicating whether compression should be utilized, the predetermined policy being based on a comparison of how long it would take to compress and send the data from the first network connected data storage device to the second network connected data storage device, against how long it would take to send the data uncompressed; based on the comparison, dynamically determining whether to compress the data to be replicated prior to transmitting from the first network connected data storage device to the second network connected data storage device, wherein if the difference in storage space saving due to the compression of the data would be non-significant, determining not to compress the data to be replicated prior to transmitting across the network from the first network connected data storage device to the second network connected data storage device regardless of the determining result; and transmitting the data to be replicated accordingly across the network from the first network connected data storage device to the second network connected data storage device. periodically transmitting sample data from the first network connected data storage device to the second network connected data storage device to obtain a measurement indicative of bandwidth throughput between the first and second network connected data storage devices; comparing the measurement indicative of bandwidth throughput with a predetermined policy indicating whether compression should be utilized, the predetermined policy being based on a comparison of how long it would take to compress and send the data from the first network connected data storage device to the second network connected data storage device, against how long it would take to send the data uncompressed; based on the comparison, dynamically determining whether to compress the data to be replicated prior to transmitting from the first network connected data storage device to the second network connected data storage device, wherein if the difference in storage space saving due to the compression of the data would be non-significant, determining not to compress the data to be replicated prior to transmitting across the network from the first network connected data storage device to the second network connected data storage device regardless of the determining result; and transmitting the data to be replicated accordingly across the network from the first network connected data storage device to the second network connected data storage device.
A module for depositing a viscous medium, in particular an adhesive or lacquer, onto a surface, wherein the module comprises a reservoir which can be fed with the viscous medium, an outer surface of the module comprising an outlet region for the viscous medium, wherein the module comprises at least one nozzle channel which fluidically connects the reservoir to the outlet region, a smallest diameter (d min) of the at least one nozzle channel being smaller than 0.8 mm and wherein the module comprises no moving parts for the closure of the at least one nozzle channel, the module comprising a longitudinal axis and a plurality of module segments, wherein the module segments comprise two end segments and at least one intermediate segment arranged between the end segments, which intermediate segment laterally encloses the reservoir und comprises the at least one nozzle channel, wherein the two end segments close off the ends of the reservoir, characterized in that the at least one intermediate segment is tubular and forms an axial section of the module.