mhurhangee/ep-ind-claims huggingface dataset:
A method operational on a first device (104, 202, 302, 402, 502) for securely establishing an association with a second device over a wireless communication link, comprising: performing a cryptographic key exchange with the second device (106, 204, 304, 404, 504), wherein cryptographic information (314, 316, 318, 320) for the first and second devices is obtained; receiving a first commitment value from the second device; generating a second commitment value at the first device based on the cryptographic information for the first and second devices; determining that the received first commitment value matches the generated second commitment value to secure communications between the first device and the second device; obtaining a confirmation value for the first device based on the cryptographic information for the first and second devices after determining that the received first commitment value matches the second commitment value; obtaining a confirmation image based on the confirmation value; and providing the confirmation image to an operator for authentication against a corresponding confirmation image for the second device. performing a cryptographic key exchange with the second device (106, 204, 304, 404, 504), wherein cryptographic information (314, 316, 318, 320) for the first and second devices is obtained; receiving a first commitment value from the second device; generating a second commitment value at the first device based on the cryptographic information for the first and second devices; determining that the received first commitment value matches the generated second commitment value to secure communications between the first device and the second device; obtaining a confirmation value for the first device based on the cryptographic information for the first and second devices after determining that the received first commitment value matches the second commitment value; obtaining a confirmation image based on the confirmation value; and providing the confirmation image to an operator for authentication against a corresponding confirmation image for the second device.
A panel comprising a plasterboard, the plasterboard having a backing lamina glued to one of the faces thereof, the plasterboard comprising a gypsum matrix having fibres embedded therein in an amount of at least 1 wt% relative to the gypsum, wherein the lamina has a thickness of at least 1 mm and comprises substantially a material selected from the group comprising: PVC, HDPE, Nylon, polycarbonate, Bakelite, polypropylene and acetal.
A lubricant additive composition characterised in that the lubricant additive composition comprises a first metal component and nanoparticles including a second metal component, wherein the first metal component comprises copper, wherein the second metal component comprises tin, wherein the nanoparticles include a mixture of the first metal component in metallic form and the second metal component in salt form and a soluble third metal component being a soluble salt of a synthetic or natural carboxlic acid derived from copper, tin, cobalt, zinc, bismuth, manganese and/or molybdenum being soluble in the solvent or dispersing medium of the composition.
An aerosol-generating device comprising: an aerosol-generating element comprising a body and a receptacle for receiving a cartridge comprising an aerosol-forming substrate; a vessel having a liquid fill level and defining a head space outlet above the liquid fill level; a conduit for conveying airflow from the receptacle to the vessel; and a cap engageable with the body, the cap comprising: a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a piercing element disposed within the cavity and configured to pierce a wall of the cartridge, wherein the cap is movable, relative to the body, between a first position and a second position, between the second position and a third position, and between the third position and the first position, and wherein the third position is an intermediate position between the first and second positions, in which an air path between an external environment, the cavity, and the receptacle is open. an aerosol-generating element comprising a body and a receptacle for receiving a cartridge comprising an aerosol-forming substrate; a vessel having a liquid fill level and defining a head space outlet above the liquid fill level; a conduit for conveying airflow from the receptacle to the vessel; and a cap engageable with the body, the cap comprising: a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a piercing element disposed within the cavity and configured to pierce a wall of the cartridge, a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a piercing element disposed within the cavity and configured to pierce a wall of the cartridge, wherein the cap is movable, relative to the body, between a first position and a second position, between the second position and a third position, and between the third position and the first position, and wherein the third position is an intermediate position between the first and second positions, in which an air path between an external environment, the cavity, and the receptacle is open.
A tab in combination with a can end, the can end comprising an end panel, a first rivet, a second rivet, and a scoreline defining a tear panel in the end panel for providing an opening in the can end, the tab comprising: a body including a first end, a second end disposed opposite and distal from the first end; a nose portion located at or about the first end of the tab; a lift portion located at or about the second end of the tab; a rivet receiving portion disposed proximate the nose portion, the rivet receiving portion including a rivet hole; wherein the first rivet extends outwardly from the end panel and fastens the rivet receiving portion of the tab to the can end; wherein the tab is configured to pivot about the first rivet in order to both sever or detach the second rivet from the end panel, and open the tear panel; and wherein the can end is selected from the group consisting of a beer can end and a beverage can end, characterized in that: the tab further comprises a recessed panel spaced from the rivet receiving portion and being proximate the lift portion of the tab, the recessed panel including a rivet aperture, the second rivet extending through the rivet aperture and being fastened to the recessed panel. a body including a first end, a second end disposed opposite and distal from the first end; a nose portion located at or about the first end of the tab; a lift portion located at or about the second end of the tab; a rivet receiving portion disposed proximate the nose portion, the rivet receiving portion including a rivet hole; wherein the first rivet extends outwardly from the end panel and fastens the rivet receiving portion of the tab to the can end; the tab further comprises a recessed panel spaced from the rivet receiving portion and being proximate the lift portion of the tab, the recessed panel including a rivet aperture, the second rivet extending through the rivet aperture and being fastened to the recessed panel.
A method for preparing induced pluripotent stem cells induced from human dermal fibroblast or neonatal human dermal fibroblasts, comprising - a step of preparing a callus extract of sequoia comprising shikimic acid; - a step of treating the human dermal fibroblast or neonatal human dermal fibroblasts with a cell membrane permeabilizing agent and then injecting a callus extract of sequoia comprising shikimic acid into the human dermal fibroblast or neonatal human dermal fibroblasts; and - a step of culturing the extract injected fibroblasts in a cell culture medium DMEM, 5-15% FBS, 10-100 U/mL penicillin, 20-80 mg/mL streptomycin, and then culturing in an embryonic stem cell culture medium after transferring to a feeder cell layer. - a step of preparing a callus extract of sequoia comprising shikimic acid; - a step of treating the human dermal fibroblast or neonatal human dermal fibroblasts with a cell membrane permeabilizing agent and then injecting a callus extract of sequoia comprising shikimic acid into the human dermal fibroblast or neonatal human dermal fibroblasts; and - a step of culturing the extract injected fibroblasts in a cell culture medium DMEM, 5-15% FBS, 10-100 U/mL penicillin, 20-80 mg/mL streptomycin, and then culturing in an embryonic stem cell culture medium after transferring to a feeder cell layer.
Liquid-cooled grate for a solid-fuel burner, the grate comprising an input aperture for fuel, a fan and a circulation system for the cooling fluid, and which grate comprises one or more stationary grate levels formed by a stationary grate plate and one or more movable grate levels formed by a movable grate plate, which grate levels are disposed to overlap one above another, in which case the stationary grate plate comprises a cooling duct, which cooling duct has an input aperture at its first end and an output aperture at its second end, and each liquid-cooled stationary grate plate is adapted to cool the movable grate plate below it and/or above it in which there is no liquid cooling, wherein the shape of the route, including bends, of the cooling duct is implemented with mutually parallel, preferably straight, support elements, characterized in that each of the support elements has a plurality of holes extending through the entire grate plate in the thickness direction for the passage of air and ash.
A method for dynamic Mode S address allocation for vehicles (110, 111, 112, 113), wherein the method comprises: providing a database with a plural number of Mode S addresses; assigning one of the Mode S addresses to a vehicle (110, 111, 112, 113) when a condition is fulfilled, wherein the assigned Mode S address is not available for other vehicles (110, 111, 112, 113) after the assignment; and deassigning the Mode S address from the vehicle (110, 111, 112, 113) when said condition is no longer fulfilled, wherein the deassigned Mode S address is available for assignment to another vehicle (110, 111, 112, 113) after the deassignment, characterized in that the Mode S addresses are provided in said database for a predetermined airspace, and said condition is a time the vehicle (110, 111, 112, 113) is present in said predetermined airspace. providing a database with a plural number of Mode S addresses; assigning one of the Mode S addresses to a vehicle (110, 111, 112, 113) when a condition is fulfilled, wherein the assigned Mode S address is not available for other vehicles (110, 111, 112, 113) after the assignment; and deassigning the Mode S address from the vehicle (110, 111, 112, 113) when said condition is no longer fulfilled, wherein the deassigned Mode S address is available for assignment to another vehicle (110, 111, 112, 113) after the deassignment, characterized in that the Mode S addresses are provided in said database for a predetermined airspace, and said condition is a time the vehicle (110, 111, 112, 113) is present in said predetermined airspace.
A customized patient-specific tibial cutting block, comprising: a body having a bone-facing surface that has a customized patient-specific negative contour configured to receive (i) a portion of an anterior side of a patient's tibia that has a corresponding positive contour, and (ii) a portion of a medial side of the patient's tibia that has a corresponding positive contour such that, when viewed superiorly, an angle greater than zero is defined between a vertically-extending, bisecting plane of the body and a bisecting saggital plane of the patient's tibia when the portions of the patient's tibia are received in the customized patient-specific negative contour of the body, and at least one tab (104, 106) extending posteriorly from the body, the at least one tab having a bone-facing surface (140, 142) having a customized patient-specific negative contour (148, 150) configured to receive a portion of the proximal side of the patient's tibia that has a corresponding positive contour and further comprising a cutting guide coupled to the body, in which the cutting guide has a cutting slot defined therein, the cutting slot having a longitudinal axis, and characterised in that the longitudinal axis of the cutting slot defines a perpendicular angle with the bisecting sagittal plane of the patient's tibia when the portions of the patient's tibia are received in the customized patient-specific negative contour of the body. a body having a bone-facing surface that has a customized patient-specific negative contour configured to receive (i) a portion of an anterior side of a patient's tibia that has a corresponding positive contour, and (ii) a portion of a medial side of the patient's tibia that has a corresponding positive contour such that, when viewed superiorly, an angle greater than zero is defined between a vertically-extending, bisecting plane of the body and a bisecting saggital plane of the patient's tibia when the portions of the patient's tibia are received in the customized patient-specific negative contour of the body, and at least one tab (104, 106) extending posteriorly from the body, the at least one tab having a bone-facing surface (140, 142) having a customized patient-specific negative contour (148, 150) configured to receive a portion of the proximal side of the patient's tibia that has a corresponding positive contour and further comprising a cutting guide coupled to the body, in which the cutting guide has a cutting slot defined therein, the cutting slot having a longitudinal axis, and characterised in that the longitudinal axis of the cutting slot defines a perpendicular angle with the bisecting sagittal plane of the patient's tibia when the portions of the patient's tibia are received in the customized patient-specific negative contour of the body.
A fire extinguishing system valve, in particular wet alarm valve, dry alarm valve or spray water valve, comprising - a housing which has a fluid inlet chamber, a fluid outlet chamber and a closing body which can move back and forth between a blocking state and a release state, - wherein the fluid inlet chamber and the fluid outlet chamber communicate directly with one another in a fluid-conducting manner in the release state, and the closing body prevents the direct communication between the fluid inlet chamber and the fluid outlet chamber in the blocking state, characterized in that the housing has a dedicated discharge duct which has at least one inlet (30a, b) connected to the fluid outlet chamber and an outlet leading out of the housing of the fire extinguishing system valve, and which is integrated into the housing, and the housing has a control module which is configured - to selectively release the dedicated discharge duct in a discharge position in the direction of its outlet or, in a blocking position, to close it fluid-tight in the direction of its outlet, and, - in an alarm testing position, to remove extinguishing agent from the fluid outlet chamber via a duct portion having a cross section which is smaller than the smallest cross section of the dedicated discharge duct. - a housing which has a fluid inlet chamber, a fluid outlet chamber and a closing body which can move back and forth between a blocking state and a release state, - wherein the fluid inlet chamber and the fluid outlet chamber communicate directly with one another in a fluid-conducting manner in the release state, and the closing body prevents the direct communication between the fluid inlet chamber and the fluid outlet chamber in the blocking state, - to selectively release the dedicated discharge duct in a discharge position in the direction of its outlet or, in a blocking position, to close it fluid-tight in the direction of its outlet, and, - in an alarm testing position, to remove extinguishing agent from the fluid outlet chamber via a duct portion having a cross section which is smaller than the smallest cross section of the dedicated discharge duct.
A composition for the formation of a ferroelectric thin film which is used in the formation of a ferroelectric thin film of one material selected from the group consisting of PLZT, PZT, and PT, wherein the composition is a liquid composition for the formation of a thin film of a mixed composite metal oxide formed of a mixture of a composite metal oxide A represented by the general formula: Pb x La y Zr z Ti 1 − z O 3 wherein in the formula 0.9 < x < 1.3, 0 ≤ y < 0.1, and 0 ≤ z < 0.9, with a composite oxide B including Ce, the composition comprising an organometallic compound solution wherein the raw material constituting the composite metal oxide A and the raw material constituting the composite oxide B are dissolved in an organic solvent in such a proportion as to provide the metal atom ratio represented by the general formula, and a molar ratio B/A of the composite oxide B to the composite metal oxide A is in the range of 0<B/A<0.05.
A method of manufacturing a honeycomb body, comprising the steps of: mixing inorganic source materials, a pore former, and forming aids to form a plasticized batch, wherein the pore former includes nut shells, wherein the nut shells having a particle size distribution with 20 μm ≤ d p50 ≤ 70 μm, wherein d p50 is a median particle diameter wherein 50% of the particle volume has a smaller particle diameter, the nut shells exhibit a particle size distribution wherein d p10 ≥ 10 μm, wherein d p10 is a particle diameter, wherein 10% of the particle volume has a smaller particle diameter, the nut shells exhibit a particle size distribution with d p90 ≤ 100 μm, wherein d p90 is a particle diameter where 90% of the particle volume has a smaller particle diameter, and the nut shells are provided in the plasticized batch in an amount between 5-80 wt. % of the inorganic source materials, by superaddition; forming the plasticized batch into the honeycomb body having a plurality of channels formed by intersecting walls. mixing inorganic source materials, a pore former, and forming aids to form a plasticized batch, wherein the pore former includes nut shells, wherein the nut shells having a particle size distribution with 20 μm ≤ d p50 ≤ 70 μm, wherein d p50 is a median particle diameter wherein 50% of the particle volume has a smaller particle diameter, the nut shells exhibit a particle size distribution wherein d p10 ≥ 10 μm, the nut shells having a particle size distribution with 20 μm ≤ d p50 ≤ 70 μm, wherein d p50 is a median particle diameter wherein 50% of the particle volume has a smaller particle diameter, the nut shells exhibit a particle size distribution wherein d p10 ≥ 10 μm, wherein d p10 is a particle diameter, wherein 10% of the particle volume has a smaller particle diameter, the nut shells exhibit a particle size distribution with d p90 ≤ 100 μm, the nut shells exhibit a particle size distribution with d p90 ≤ 100 μm, wherein d p90 is a particle diameter where 90% of the particle volume has a smaller particle diameter, and the nut shells are provided in the plasticized batch in an amount between 5-80 wt. % of the inorganic source materials, by superaddition; the nut shells are provided in the plasticized batch in an amount between 5-80 wt. % of the inorganic source materials, by superaddition; forming the plasticized batch into the honeycomb body having a plurality of channels formed by intersecting walls.
A structure of three-dimensional fabric, comprising: a resilient tissue, which is formed by arranging and interlacing a plurality of first structural yarns and, a plurality of first elastic yarns, a foundation tissue, which is formed by arranging and interlacing a plurality of second structural yarns and a plurality of second elastic yarns, wherein each of the second structural yarns being arranged with each of the second elastic yarns as a strand; and a support tissue, which is formed of a plurality of first support yarns and a plurality of second support yarns and connects between the resilient tissue and the foundation tissue, wherein each of the first support yarns is arranged with each strand of the first structural yarns and the first elastic yarns and extends to each strand of the second structural yarns and the second elastic yarns arranged in the foundation tissue; the three-dimensional fabric is electrically conductive and characterized in that the resilient tissue is conductive and comprises a plurality of electrically conductive yarns, wherein each of the first structural yarns is combined with each of the first elastic yarns as a strand for being alternately arranged with each of the electrically conductive yarns, and wherein each of the second support yarns is arranged with each of the electrically conductive yarns and extends to each strand of the second structural yarns and the second elastic yarns arranged in the foundation tissue in a manner as being spaced from the first support yarns. a resilient tissue, which is formed by arranging and interlacing a plurality of first structural yarns and, a plurality of first elastic yarns, a foundation tissue, which is formed by arranging and interlacing a plurality of second structural yarns and a plurality of second elastic yarns, wherein each of the second structural yarns being arranged with each of the second elastic yarns as a strand; and a support tissue, which is formed of a plurality of first support yarns and a plurality of second support yarns and connects between the resilient tissue and the foundation tissue, wherein each of the first support yarns is arranged with each strand of the first structural yarns and the first elastic yarns and extends to each strand of the second structural yarns and the second elastic yarns arranged in the foundation tissue; the three-dimensional fabric is electrically conductive and characterized in that the resilient tissue is conductive and comprises a plurality of electrically conductive yarns, wherein each of the first structural yarns is combined with each of the first elastic yarns as a strand for being alternately arranged with each of the electrically conductive yarns, and wherein each of the second support yarns is arranged with each of the electrically conductive yarns and extends to each strand of the second structural yarns and the second elastic yarns arranged in the foundation tissue in a manner as being spaced from the first support yarns.