mhurhangee/ep-ind-claims huggingface dataset:
Socket contact for making electrical contact with a pin contact, wherein the socket contact is formed substantially from a hollow cylinder in which at least one axial slot is made, as a result of which at least two spring arms are formed, wherein the ends of the spring arms have contact regions, wherein in each case two points of physical contact can be established with the pin contact by means of the contact regions, wherein the contact regions have a curved covering surface, and wherein the curved covering surface forms two points of physical contact with the pin contact, characterized in that the spring arm has a greater wall thickness in the contact region than outside the contact region, as a result of which the spring arm forms a thickened portion in the contact region.
A system for generating procedural textures on an object based on physical ink data and physical applicator data, comprising: - access to physical ink data comprising a plurality of parameters among the following: color, viscosity, temperature, drying time, chemical composition, and transparency; - access to physical applicator data comprising a plurality of parameters among the following: width, depth, thickness, profile, roughness, porosity, applicator flexibility, application force, pressure, and application temperature; - access to target object data including initial mesh data of the target objects and initial relief data of the target objects; - access to mixing rules and functions data providing a description of the process determining how a material reacts with an ink applied to the material; - access to physical data of initial textures T; - a microprocessor and control instructions; - a pre-projection virtual rendering generation module, provided for combining the physical ink data with the physical applicator data independently of the projection mode; - a pre-projection virtual rendering (PPVR) transformation module, provided for adapting the data of this rendering to a given rendering projection mode; - a tessellation module for tessellating the target object data in order to transform relief data of the target objects into a mesh; an integrator module for the physical parameters, provided for generating a new set of textures T+1 for said one or more objects taking into account object data, data from the set of textures T, data from the tessellation module and transformed pre-projection virtual rendering data. - access to physical ink data comprising a plurality of parameters among the following: color, viscosity, temperature, drying time, chemical composition, and transparency; - access to physical applicator data comprising a plurality of parameters among the following: width, depth, thickness, profile, roughness, porosity, applicator flexibility, application force, pressure, and application temperature; - access to target object data including initial mesh data of the target objects and initial relief data of the target objects; - access to mixing rules and functions data providing a description of the process determining how a material reacts with an ink applied to the material; - access to physical data of initial textures T; - a microprocessor and control instructions; - a pre-projection virtual rendering generation module, provided for combining the physical ink data with the physical applicator data independently of the projection mode; - a pre-projection virtual rendering (PPVR) transformation module, provided for adapting the data of this rendering to a given rendering projection mode; - a tessellation module for tessellating the target object data in order to transform relief data of the target objects into a mesh;
An aircraft with a fuselage and a floor structure that is arranged inside said fuselage, said floor structure and said fuselage defining a subfloor region between said floor structure and a fuselage underside of said fuselage, said subfloor region accommodating at least one auxiliary compartment, wherein an equipment bay with at least one auxiliary equipment is arranged within said subfloor region, said at least one auxiliary equipment being a cargo hook arrangement and said equipment bay defining a cargo hook compartment, wherein said cargo hook arrangement is at least essentially stowable in said cargo hook compartment in a stow mode such that the cargo hook arrangement is continuously and durably accommodated in said cargo hook compartment and may at most adjust an associated stow position in the cargo hook compartment to an associated operation position that is required for utilization or operation, said at least one auxiliary compartment being at least partly arranged in a region between said cargo hook compartment and said floor structure such that said at least one auxiliary compartment separates said cargo hook compartment from said floor structure.
A method for integrated circuit fabrication, the method comprising: removing a silicon oxide material from a surface of a substrate, wherein removing the silicon oxide material comprises: depositing a halogen-containing material on the surface of the substrate in a first reaction chamber; transferring the substrate having the halogen-containing material to a second reaction chamber; and sublimating the halogen-containing material in the second reaction chamber, wherein sublimating the halogen-containing material comprises exposing the halogen-containing material to a plasma generated by a remote plasma unit; and subsequently depositing a conductive material on the substrate surface in the second reaction chamber. removing a silicon oxide material from a surface of a substrate, wherein removing the silicon oxide material comprises: depositing a halogen-containing material on the surface of the substrate in a first reaction chamber; transferring the substrate having the halogen-containing material to a second reaction chamber; and sublimating the halogen-containing material in the second reaction chamber, wherein sublimating the halogen-containing material comprises exposing the halogen-containing material to a plasma generated by a remote plasma unit; and depositing a halogen-containing material on the surface of the substrate in a first reaction chamber; transferring the substrate having the halogen-containing material to a second reaction chamber; and sublimating the halogen-containing material in the second reaction chamber, wherein sublimating the halogen-containing material comprises exposing the halogen-containing material to a plasma generated by a remote plasma unit; and subsequently depositing a conductive material on the substrate surface in the second reaction chamber.
A cementitious composite product having stone-like properties, the product comprising an extrudable cementitious composition comprised of a hydraulic cement, aggregate, a rheology-modifying agent being selected from the group consisting of methylhydroxyethylcellulose, hydroxymethylethylcellulose, carboxymethylcellulose, methylcellulose, ethylcellulose, hydroxyethylcellulose, hydroxypropylcellulose, amylpectin, amulose, seagel, starch acetates, starch hydroxyethers, ionic starches, long chain alkylstarches, dextrins, amine starches, phosphate starches, dialdehyde starches, alginic acid, phycocolloids, agar, gum Arabic, guar gum, locust bean gum, gum karaya, gum tragacanth, collagens, caseins, biopolymers, biopolyesters, petroleum-based polymers, latexes, biodegradable polymers, polyvinyl chloride, polyvinyl alcohol, and polyvinyl acetate, and clay, and from 1.5% (by volume of the extrudable cementitious composition) to 5.0% (by volume of the extrudable cementitious composition) cellulose fibers and from 1.5% (by volume of the extrudable cementitious composition) to 3.5% (by volume of the extrudable cementitious composition) polyvinyl alcohol fibers, wherein the composition comprises from 3.5% (by volume of the extrudable cementitious composition) to 8% (by volume of the extrudable cementitious composition) total fibers, the fibers substantially homogeneously distributed through the extrudable cementitious composition, wherein the cementitious composite product has a hardness value of at least 4MOH and a bulk density of from 1.3 g/cm 3 to 2.3 g/cm 3.
An input apparatus for a computer comprising an outer case having a front face, a top face and opposing side walls (E1, E2), the apparatus comprising at least one control (108, 109) located on the top face of the controller, the controller being shaped to be held in both hands of a user such that the user's index fingers are positioned to operate the at least one control (108, 109) located on the top of the controller; the controller further comprises at least one additional control (120, 122) located on at least one of the opposing side walls (E1, E2) of the controller in a position operable by an intermediate portion of the user's index finger.
A system for simultaneously forming and filling a container with a product comprising: a mold cavity defining an internal surface and configured to accept a preform; a two-stage injection unit configured to receive the product and dispense the product, the two-stage injection unit including a first stage comprising an extruder and a second stage comprising an accumulator, the extruder configured to impart mechanical energy to the product to reduce a viscosity of the product and transfer the reduced-viscosity product to the accumulator, the accumulator configured to receive the reduced-viscosity product from the extruder and dispense a charge of the reduced-viscosity product; and a blow nozzle configured to transfer the charge of the reduced-viscosity product dispensed from the accumulator into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the reduced-viscosity product remains within the container as an end product. a mold cavity defining an internal surface and configured to accept a preform; a two-stage injection unit configured to receive the product and dispense the product, the two-stage injection unit including a first stage comprising an extruder and a second stage comprising an accumulator, the extruder configured to impart mechanical energy to the product to reduce a viscosity of the product and transfer the reduced-viscosity product to the accumulator, the accumulator configured to receive the reduced-viscosity product from the extruder and dispense a charge of the reduced-viscosity product; and a blow nozzle configured to transfer the charge of the reduced-viscosity product dispensed from the accumulator into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container, where the reduced-viscosity product remains within the container as an end product.
A poly (ethylene glycol) modified hCG having formula (Ia) n -X-Y (Ia) wherein: is a polyethylene glycol PEG or a methoxypoly (ethylene glycol) (mPEG); n is 2, 3 or 4; X is a linker group; and Y is hCG. is a polyethylene glycol PEG or a methoxypoly (ethylene glycol) (mPEG); n is 2, 3 or 4; X is a linker group; and Y is hCG.
A stabilizer system for a motor vehicle, in particular for a utility vehicle, comprising at least one stabilizer strut, at least one elastomeric joint, at least one receiving bushing, and at least one fastening stud, wherein the elastomeric joint is arranged in the region of an end of the stabilizer strut, and wherein the receiving bushing is arranged in the interior of the elastomeric joint, the fastening stud being mounted in the receiving bushing, wherein the receiving bushing includes at least one at least partly conical seat for the fastening stud, characterized in that a corresponding conical counterpart of the fastening stud is inserted in the partly conical seat of the receiving bushing.
A process for producing an emulsion of an aqueous phase dispersed in a continuous fat phase comprising the steps of: a. mixing the aqueous phase and the continuous fat phase with monoacylglycerols that are 87% glycerol monostearate and 12% glycerol monopalmitate and triacylglycerols that are HCO (hydrogenated canola oil), wherein the monoacylglycerols and triacylglycerols each or together have a crystallization temperature at least 8°C higher than the continuous fat phase, wherein the crystallization temperature is measured using differential scanning calorimetry at a heating and cooling rate of 5 0 C/min, and optionally a non-crystallizing emulsifier, at a temperature above the crystallization temperature of the continuous fat phase, monoacylglycerols, and triacylglycerols; and b. homogenizing the mixture, preferably under high shear, to obtain an emulsion; and c. cooling the emulsion to a temperature below the crystallisation temperature of the monoacylglycerols and the triacylglycerols and above the crystallisation temperature of the continuous fat phase, whilst stirring, wherein cooling is performed at a rate of 0.01 to 4°C/min; and d. recovering the emulsion. a. mixing the aqueous phase and the continuous fat phase with monoacylglycerols that are 87% glycerol monostearate and 12% glycerol monopalmitate and triacylglycerols that are HCO (hydrogenated canola oil), wherein the monoacylglycerols and triacylglycerols each or together have a crystallization temperature at least 8°C higher than the continuous fat phase, wherein the crystallization temperature is measured using differential scanning calorimetry at a heating and cooling rate of 5 0 C/min, and optionally a non-crystallizing emulsifier, at a temperature above the crystallization temperature of the continuous fat phase, monoacylglycerols, and triacylglycerols; and b. homogenizing the mixture, preferably under high shear, to obtain an emulsion; and c. cooling the emulsion to a temperature below the crystallisation temperature of the monoacylglycerols and the triacylglycerols and above the crystallisation temperature of the continuous fat phase, whilst stirring, wherein cooling is performed at a rate of 0.01 to 4°C/min; and d. recovering the emulsion.
A heat storage cooker comprising a least one oven cavity formed by walls of cast iron, and at least one electric radiant heating element which is in thermal contact with at least one wall such that in use the electric radiant heating element transfers heat energy to the walls which in use store the heat energy and subsequently radiate at least part of that heat energy in to the oven cavity, wherein said at least one wall is in turn in thermal contact with at least one other wall of the oven cavity, characterised in that the at least one radiant heating element comprises a generally flat plate of ceramic or glass ceramic covering a coil of electrical resistive heating element.
An optical time domain reflectometry test system, abbreviated OTDR test system, adapted to detect a physical impairment in a time wavelength division multiplexing passive optical network, abbreviated TWDM PON, said TWDM PON being in operational use by a service provider, said OTDR test system comprising a processor (107; 207; 307; 407) configured to: - assess the status of said TWDM PON; - select a test channel amongst the available TWDM channels for an OTDR test through an optimization criterion considering said status of said TWDM PON and minimizing impact of said OTDR test for one or more users; - move optical network terminations (171, 175; 271, 275; 371, 275; 471, 475), abbreviated ONTs, that are using said test channel to one or more TWDM channel different from said test channel; - instruct injection of an OTDR test signal by the respective laser (121; 221; 321; 421) in the optical line termination (101; 201; 301; 401), abbreviated OLT, into said test channel; - capture reflections of said OTDR test signal at said OLT (101; 201; 301; 401); - move said ONTs (171, 175; 271, 275; 371, 275; 471, 475) back to said test channel or to a more optimal channel configuration; and - process said reflections of said OTDR test signal to detect said physical impairment. - assess the status of said TWDM PON; - select a test channel amongst the available TWDM channels for an OTDR test through an optimization criterion considering said status of said TWDM PON and minimizing impact of said OTDR test for one or more users; - move optical network terminations (171, 175; 271, 275; 371, 275; 471, 475), abbreviated ONTs, that are using said test channel to one or more TWDM channel different from said test channel; - instruct injection of an OTDR test signal by the respective laser (121; 221; 321; 421) in the optical line termination (101; 201; 301; 401), abbreviated OLT, into said test channel; - capture reflections of said OTDR test signal at said OLT (101; 201; 301; 401); - move said ONTs (171, 175; 271, 275; 371, 275; 471, 475) back to said test channel or to a more optimal channel configuration; and - process said reflections of said OTDR test signal to detect said physical impairment.
Kit for the realization of a dry mounted, self-supporting, anti-seismic, modular structure comprising - at least one polyhedric bar having at least one face, - a plurality of modular elements having the shape of a parallelepiped with two bases and four faces extending between the bases, and - a plurality of junction elements each having the shape of the section which would be obtained when cutting said modular elements along a diagonal of one of their bases, the plurality of junction elements having two bases and three faces extending between the bases, whereby said bars, modular elements and junction elements have at least one female element and/or one male element on at least one of their faces, shaped so as to be coupled with play with the male/female element of a contiguous element, whereby the female elements have a groove shape and the male elements have a pin shape apt to be inserted and to slide along said grooves once in place, and whereby, in said modular elements and said junction elements, the grooves run parallel to the bases, whereby said bars, modular elements and junction elements can be connected and assembled together in absence of any sort of binder or joint, and whereby the bases of said modular elements and said junction elements can be assembled in static equilibrium with a diamond configuration along a plane parallel to the direction of the force of gravity, such that - any single modular element and junction element is connected with play to a contiguous element and remains free to move also once in place, - all the faces of the modular elements in contact with the faces of other modular elements or junction elements identify reciprocal, non-horizontal, sliding planes transverse to the direction of the force of gravity. - at least one polyhedric bar having at least one face, - a plurality of modular elements having the shape of a parallelepiped with two bases and four faces extending between the bases, and - a plurality of junction elements each having the shape of the section which would be obtained when cutting said modular elements along a diagonal of one of their bases, the plurality of junction elements having two bases and three faces extending between the bases, - any single modular element and junction element is connected with play to a contiguous element and remains free to move also once in place, - all the faces of the modular elements in contact with the faces of other modular elements or junction elements identify reciprocal, non-horizontal, sliding planes transverse to the direction of the force of gravity.
An abrasive article (100, 200, 300, 400, 600) comprising: a carrier element (102, 202, 302, 402, 604, 1304); a densified abrasive component (104, 204, 304, 404, 500, 602, 1302), the abrasive component including abrasive particles (504, 606) bound in a metal matrix, the abrasive component further including a network of interconnected pores substantially filled with an infiltrant having an infiltrant composition containing at least one metal element; and a bonding region (106, 206, 306, 406, 612, 1306) between the abrasive component and the carrier element, wherein the bonding region is an identifiable layer having a distinct phase from the carrier element and the abrasive component, the bonding region consisting of a bonding metal having a bonding metal composition containing at least one metal element, wherein an elemental weight percent difference between the bonding metal composition and the infiltrant composition does not exceed 20 weight percent, wherein the elemental weight percent difference is the absolute value of the difference in weight content of each element contained in the bonding metal composition relative to the infiltrant composition, wherein the bonding metal composition includes a metal selected from the group consisting of copper, a copper-tin bronze, a copper-tin-zinc alloy, or any combination thereof, and wherein an amount of infiltrant within the densified abrasive component is 20 wt% to 45 wt% of the abrasive component. a carrier element (102, 202, 302, 402, 604, 1304); a densified abrasive component (104, 204, 304, 404, 500, 602, 1302), the abrasive component including abrasive particles (504, 606) bound in a metal matrix, the abrasive component further including a network of interconnected pores substantially filled with an infiltrant having an infiltrant composition containing at least one metal element; and a bonding region (106, 206, 306, 406, 612, 1306) between the abrasive component and the carrier element, wherein the bonding region is an identifiable layer having a distinct phase from the carrier element and the abrasive component, the bonding region consisting of a bonding metal having a bonding metal composition containing at least one metal element, wherein an elemental weight percent difference between the bonding metal composition and the infiltrant composition does not exceed 20 weight percent, wherein the elemental weight percent difference is the absolute value of the difference in weight content of each element contained in the bonding metal composition relative to the infiltrant composition, wherein the bonding metal composition includes a metal selected from the group consisting of copper, a copper-tin bronze, a copper-tin-zinc alloy, or any combination thereof, and wherein an amount of infiltrant within the densified abrasive component is 20 wt% to 45 wt% of the abrasive component.