mhurhangee/ep-ind-claims huggingface dataset:
A composite monocrystalline film, comprising: a substrate; a first isolation layer disposed on the substrate; a first film layer ( disposed on the first isolation layer; and a second film layer disposed on the first film layer, wherein the first film layer is a lithium niobate or lithium tantalate monocrystalline film layer, and the second film layer is a silicon monocrystalline film layer, wherein a first transition layer is formed between the substrate and the first isolation layer, a second transition layer is formed between the first isolation layer and the first film layer and a third transition layer is formed between the first film layer and the second film layer, wherein, the first transition layer, second transition layer and third transition layer include elements H and Ar, the Ar element in the second transition layer and third transition layer is derived from a plasma used in the plasma bonding between the first isolation layer and the first film layer or between the first film layer and the second film layer 140, the element H in the first transition layer is derived from the diffusion of the element H in the second transition layer and third transition layer; wherein the concentration of H in the first transition layer, second transition layer and third transition layer ranges from 1 × 10 19 to 1 × 10 22 atoms/cc. a substrate; a first isolation layer disposed on the substrate; a first film layer ( disposed on the first isolation layer; and a second film layer disposed on the first film layer, wherein the first film layer is a lithium niobate or lithium tantalate monocrystalline film layer, and the second film layer is a silicon monocrystalline film layer, wherein a first transition layer is formed between the substrate and the first isolation layer, a second transition layer is formed between the first isolation layer and the first film layer and a third transition layer is formed between the first film layer and the second film layer, wherein, the first transition layer, second transition layer and third transition layer include elements H and Ar, the Ar element in the second transition layer and third transition layer is derived from a plasma used in the plasma bonding between the first isolation layer and the first film layer or between the first film layer and the second film layer 140, the element H in the first transition layer is derived from the diffusion of the element H in the second transition layer and third transition layer; wherein the concentration of H in the first transition layer, second transition layer and third transition layer ranges from 1 × 10 19 to 1 × 10 22 atoms/cc.
Device for opto-electronic torque determination with a first component, a second component, where the first component can be connected with a drive element and the second component with an output element or vice versa, a first coding element, which is arranged on the first component, a second coding element, which is arranged on the second component a first light barrier, which scans the rotational movement of the first coding element, a second light barrier, which scans the rotational movement of the second coding element, an electronic evaluation unit for the detection and evaluation of the signals originating from the first light barrier and the second light barrier, where at least one elastic element is provided between the first and the second component, which is deformable according to a torque acting on it, and if a change in the torque occurs, a change in the rotational angle position of the components (2, 3) relative to each other is detectable and from this the torque can be determined, characterised in that the first component has a web, the web can be turned towards the second component over a defined angle range, only the second component comprises the elastic element, the web acts on the elastic element and the elastic element, on turning the web, can be impinged by it with a force, the second component has at least one recess, in which the elastic element protrudes and in which the web engages, where the elastic element is arranged in a further recess on the second component and from there protrudes into the recess. a second coding element, which is arranged on the second component a first light barrier, which scans the rotational movement of the first coding element, a second light barrier, which scans the rotational movement of the second coding element, an electronic evaluation unit for the detection and evaluation of the signals originating from the first light barrier and the second light barrier, where at least one elastic element is provided between the first and the second component, which is deformable according to a torque acting on it, and if a change in the torque occurs, a change in the rotational angle position of the components (2, 3) relative to each other is detectable and from this the torque can be determined, characterised in that the first component has a web, the web can be turned towards the second component over a defined angle range,
A spray-dried, water-soluble composition comprising at least one water-insoluble anti-malarial drug and a water-soluble carrier material, wherein the water-insoluble anti-malarial drug is selected from artemisinin, arteether, artemether, dihydroartemisinin and artesunate, whether alone or in combination with another anti-malarial agent, or is selected from quinine and quinidine, wherein said water-soluble carrier material comprises a polymer and a surfactant, the polymer being selected from polyvinylpyrrolidone, hydroxypropyl cellulose, hydroxypropyl methyl cellulose (HPMC), and mixtures thereof, and the surfactant being selected from alkoxylated nonionics, phenol-ethoxylates, alkyl sulphonates, ester surfactants, cationics, and mixtures thereof, and wherein the water-insoluble anti-malarial drug is dispersed through the water-soluble carrier material in nano-disperse form having a peak diameter of the nano-disperse form within the composition, as measured as described herein, of 20-800 nm.
A composition comprising: a) about 25% up to about 75% of a plasmolysed micro-organism by weight of the total weight of the composition; b) about at least greater than 20% up to about 60%, preferably 50% by weight flavor or fragrance, of the total weight of the composition, c) about 1% up to about 25%, preferably 10% desiccant; and d) about 4% up to about < 10%, preferably 8% water; wherein the mean particle size by weight of the composition is about greater than 100 micrometer up to about 1 millimeter. a) about 25% up to about 75% of a plasmolysed micro-organism by weight of the total weight of the composition; b) about at least greater than 20% up to about 60%, preferably 50% by weight flavor or fragrance, of the total weight of the composition, c) about 1% up to about 25%, preferably 10% desiccant; and d) about 4% up to about < 10%, preferably 8% water; wherein the mean particle size by weight of the composition is about greater than 100 micrometer up to about 1 millimeter.
A process of degassing a power cable, the cable comprising: a conductor, an insulation layer, and a semiconductor layer comprising in weight percent based on the weight of the semiconductor layer: 49-98% of a crosslinked olefin block copolymer having a density less than (<) 0.9 grams per cubic centimeter (g/cm 3), a melt index greater than (>) 1, and comprising in weight percent based on the weight of the OBC: (a) 35-80% soft segment that comprises 5-50 mole percent (mol%) of units derived from a monomer comprising 3 to 30 carbon atoms; and (b) 20-65% hard segment that comprises 0.2-3.5 mol% of units derived from a monomer comprising 3 to 30 carbon atoms; 2-51 % conductive filler; the insulation layer and semiconductor layer in contact with one another, the process comprising the step of exposing the cable to a temperature of at least 80°C for a period of time of at least 24 hours. a conductor, an insulation layer, and a semiconductor layer comprising in weight percent based on the weight of the semiconductor layer: 49-98% of a crosslinked olefin block copolymer having a density less than (<) 0.9 grams per cubic centimeter (g/cm 3), a melt index greater than (>) 1, and comprising in weight percent based on the weight of the OBC: (a) 35-80% soft segment that comprises 5-50 mole percent (mol%) of units derived from a monomer comprising 3 to 30 carbon atoms; and (b) 20-65% hard segment that comprises 0.2-3.5 mol% of units derived from a monomer comprising 3 to 30 carbon atoms; 2-51 % conductive filler; the insulation layer and semiconductor layer in contact with one another, 49-98% of a crosslinked olefin block copolymer having a density less than (<) 0.9 grams per cubic centimeter (g/cm 3), a melt index greater than (>) 1, and comprising in weight percent based on the weight of the OBC: (a) 35-80% soft segment that comprises 5-50 mole percent (mol%) of units derived from a monomer comprising 3 to 30 carbon atoms; and (b) 20-65% hard segment that comprises 0.2-3.5 mol% of units derived from a monomer comprising 3 to 30 carbon atoms; (a) 35-80% soft segment that comprises 5-50 mole percent (mol%) of units derived from a monomer comprising 3 to 30 carbon atoms; and (b) 20-65% hard segment that comprises 0.2-3.5 mol% of units derived from a monomer comprising 3 to 30 carbon atoms; 2-51 % conductive filler;
A drying tunnel module for producing ceramics positioned on a transport means traversing the tunnel from the upstream side to the downstream side, the module ensuring individually the distribution, the extraction and the control of temperature; humidity and speed of the drying air for the ceramic products, said module including an upstream end and a downstream end, characterized in that said module includes an annular sheath for distributing air in the vicinity of one of its ends (9, 10), and an annular sheath for extracting air in the vicinity of the other one of its ends (9, 10.
A valve body, comprising: an inlet, an outlet, and a port positioned between the inlet and the outlet; an approach passage interconnecting the inlet and the port, the approach passage comprising a linear first portion adjacent the inlet, a linear second portion adjacent the port, and an arcuate third portion between the first portion and the second portion, wherein a cross-sectional area of the port is less than a cross-sectional area of the approach passage; and characterized in that the valve body comprises a plurality of guide vanes (90, 91) positioned within the approach passage, such that downstream ends of the plurality of guide vanes (90, 91) are spaced apart from the port and the plurality of guide vanes (90, 91) divide the third portion of the approach passage into three sub-passages (92, 93, 94) having equal flow resistances, wherein the plurality of guide vanes (90, 91) extend longitudinally from a first end of the third portion, adjacent the first portion, to a second end of the third portion, adjacent the second portion, and wherein the plurality of guide vanes (90, 91) comprise a first guide vane extending across the approach passage and a second guide vane extending only between the first guide vane and a surface of the approach passage, the second guide vane extending perpendicular to the first guide vane. an inlet, an outlet, and a port positioned between the inlet and the outlet; an approach passage interconnecting the inlet and the port, the approach passage comprising a linear first portion adjacent the inlet, a linear second portion adjacent the port, and an arcuate third portion between the first portion and the second portion, wherein a cross-sectional area of the port is less than a cross-sectional area of the approach passage; and characterized in that the valve body comprises a plurality of guide vanes (90, 91) positioned within the approach passage, such that downstream ends of the plurality of guide vanes (90, 91) are spaced apart from the port and the plurality of guide vanes (90, 91) divide the third portion of the approach passage into three sub-passages (92, 93, 94) having equal flow resistances, wherein the plurality of guide vanes (90, 91) extend longitudinally from a first end of the third portion, adjacent the first portion, to a second end of the third portion, adjacent the second portion, and wherein the plurality of guide vanes (90, 91) comprise a first guide vane extending across the approach passage and a second guide vane extending only between the first guide vane and a surface of the approach passage, the second guide vane extending perpendicular to the first guide vane.
A process for preparing a polyurethane material, said process comprising a) di- and/or polyisocyanates, b) compounds having isocyanate-reactive hydrogen atoms, c) compounds comprising at least one carbon-carbon double bond, d) optionally a catalyst to hasten the urethane reaction, e) optionally a free-radical initiator, and f) optionally further auxiliary and addedsubstance materials, being mixed into a reaction mixture and cured, wherein the compounds having isocyanate-reactive hydrogen atoms contain on average not less than 1.5 isocyanate-reactive hydrogen groups per molecule, the double bond density of compound (c) is not less than 21% and the double bond functionality of compound (c) is greater than 1 and said compound (c) has no isocyanate-reactive groups and compounds of component (b) aside no further compounds having isocyanate-reactive hydrogen atoms are used, and the equivalence ratio between the isocyanate groups of di- and/or polyisocyanates (a) and the isocyanate-reactive hydrogen atoms is in the range from 0.8 to 2. a) di- and/or polyisocyanates, b) compounds having isocyanate-reactive hydrogen atoms, c) compounds comprising at least one carbon-carbon double bond, d) optionally a catalyst to hasten the urethane reaction, e) optionally a free-radical initiator, and f) optionally further auxiliary and addedsubstance materials, being mixed into a reaction mixture and cured, wherein the compounds having isocyanate-reactive hydrogen atoms contain on average not less than 1.5 isocyanate-reactive hydrogen groups per molecule, the double bond density of compound (c) is not less than 21% and the double bond functionality of compound (c) is greater than 1 and said compound (c) has no isocyanate-reactive groups and compounds of component (b) aside no further compounds having isocyanate-reactive hydrogen atoms are used, and the equivalence ratio between the isocyanate groups of di- and/or polyisocyanates (a) and the isocyanate-reactive hydrogen atoms is in the range from 0.8 to 2. being mixed into a reaction mixture and cured, wherein the compounds having isocyanate-reactive hydrogen atoms contain on average not less than 1.5 isocyanate-reactive hydrogen groups per molecule, the double bond density of compound (c) is not less than 21% and the double bond functionality of compound (c) is greater than 1 and said compound (c) has no isocyanate-reactive groups and compounds of component (b) aside no further compounds having isocyanate-reactive hydrogen atoms are used, and the equivalence ratio between the isocyanate groups of di- and/or polyisocyanates (a) and the isocyanate-reactive hydrogen atoms is in the range from 0.8 to 2.
A composition for delivery of a biomaterial to an animal cell or a tissue, the composition comprising: (a) a biomaterial; (b) a biodegradable cross-linker portion having a hydrolyzable bond, wherein the biodegradable cross-linker portion is and is covalently bound to the biomaterial; and (c) a surface, wherein the surface is covalently bound to the biodegradable cross- linker portion, provided that the biodegradable cross-linker is adapted to hydrolyze by breaking the hydrolyzable bond and thereby release and deliver the biomaterial. (a) a biomaterial; (b) a biodegradable cross-linker portion having a hydrolyzable bond, wherein the biodegradable cross-linker portion is and is covalently bound to the biomaterial; and (c) a surface, wherein the surface is covalently bound to the biodegradable cross- linker portion, provided that the biodegradable cross-linker is adapted to hydrolyze by breaking the hydrolyzable bond and thereby release and deliver the biomaterial.
A portable hand-held spreader device, comprising: a hopper for holding an amount of granular product for spreading over terrain or other surfaces, comprising an outlet for exhausting the granular product; a handle means for holding a container; a power source; an agitator means for agitating the granular product located within the hopper and proximate the outlet; a shutter plate located inside of the outlet; an opening located on a forward portion of the container; a spreading means for spreading the granular product located in the opening below the handle means and driven by the power source; a control means for controlling a distance of travel of the shutter plate, the control means having a plurality of settings, such that each setting adjusts the distance of travel of the shutter plate with respect to the outlet; and a trigger mechanism for actuating the power source and moving the shutter plate the distance according to the setting of the control means; characterized in that the control means is coupled to the forward portion of the container. a hopper for holding an amount of granular product for spreading over terrain or other surfaces, comprising an outlet for exhausting the granular product; a handle means for holding a container; a power source; an agitator means for agitating the granular product located within the hopper and proximate the outlet; a shutter plate located inside of the outlet; an opening located on a forward portion of the container; a spreading means for spreading the granular product located in the opening below the handle means and driven by the power source; a control means for controlling a distance of travel of the shutter plate, the control means having a plurality of settings, such that each setting adjusts the distance of travel of the shutter plate with respect to the outlet; and a trigger mechanism for actuating the power source and moving the shutter plate the distance according to the setting of the control means;
A method for determining the position of orthodontic appliances comprising: obtaining a digital data file representative of the shapes of teeth of a dental arch; using the digital data file to determine marginal ridge heights of a first tooth of the dental arch and a second tooth of the dental arch; selecting an appliance height for the first tooth of the dental arch; calculating the distance between the selected appliance height for the first tooth and the marginal ridge height of the first tooth, the distance being calculated after the appliance height is selected; and proposing an appliance height for the second tooth at a distance from the marginal ridge height of the second tooth that is based at least in part on the calculated distance between the selected appliance height for the first tooth and the marginal ridge height of the first tooth. obtaining a digital data file representative of the shapes of teeth of a dental arch; using the digital data file to determine marginal ridge heights of a first tooth of the dental arch and a second tooth of the dental arch; selecting an appliance height for the first tooth of the dental arch; calculating the distance between the selected appliance height for the first tooth and the marginal ridge height of the first tooth, the distance being calculated after the appliance height is selected; and proposing an appliance height for the second tooth at a distance from the marginal ridge height of the second tooth that is based at least in part on the calculated distance between the selected appliance height for the first tooth and the marginal ridge height of the first tooth.
A gas trapping material containing porous metal oxide having a specific surface area of 30 m 2 /g or more as determined by gas adsorption and silver particles having an average particle size of 0.5 nm to 100 nm inclusive, wherein the porous metal oxide contains cerium oxide.
A method for wireless communications by a user equipment, UE, comprising: determining one or more properties of the UE; and adjusting one or more parameters of location information reporting based on the determined one or more properties of the UE, characterised in that: the one or more properties comprise at least a power state and a last known location of the UE, and the adjusting one or more parameters of location information reporting comprises selecting one or more of a plurality of location determination devices of the UE to determine location information. determining one or more properties of the UE; and adjusting one or more parameters of location information reporting based on the determined one or more properties of the UE, characterised in that: the one or more properties comprise at least a power state and a last known location of the UE, and the adjusting one or more parameters of location information reporting comprises selecting one or more of a plurality of location determination devices of the UE to determine location information. the one or more properties comprise at least a power state and a last known location of the UE, and the adjusting one or more parameters of location information reporting comprises selecting one or more of a plurality of location determination devices of the UE to determine location information.
Bearing position (2, 40) of bearing shells (16, 18), in particular big end bearing shells or main bearing shells, and a shaft, in particular crankshaft journal of crankshaft, whereby the bearing shells each comprise a metallic carrier layer, in particular of steel, and a metallic glide layer of a glide bearing alloy, and glide cooperatively with the rotation-driveable shaft when forming the bearing position, whereby a wedge-shaped pointedly tapering lubrication gap or lubrication wedge is formed during operation, characterised in that the glide layer of one of the bearing shells comprises at least one pocket (22, 30) in an area of the pointedly tapering lubrication wedge between shaft and glide layer, filled with a material that is softer than the glide layer alloy, and serves for embedding particle contamination or abrasion, for protecting the bearing position against wear and friction welding, whereby the at least one pocket (22, 30) takes up a circumference segment of 5 - 15° in circumference direction of the glide bearing shell, whereby the area of the pointedly tapering lubrication wedge between shaft and glide layer of the bearing shell, in which the at least one pocket is envisaged, is located within a circumference segment of 15 - 40°, in particular of 20 - 40°, in circumference direction of the shaft before the smallest distance between shaft and glide layer, therefore before the minimum of the lubrication wedge, which means it comprises a distance of at least 15° and at most 40° of the minimum of the lubrication wedge.