mhurhangee/ep-ind-claims huggingface dataset:
A production method for laminated glass having an inner sheet and an outer sheet, the sheets being bonded together by an intermediate film, wherein the laminated glass has a concave shape such that the outer sheet is positioned on an outer side of the concave shape and the inner sheet is positioned on an inner side of the concave shape, the production method comprising printing paint for fired substance (40a, 40b) on a concave surface side of a peripheral portion of each of the inner sheet and the outer sheet; providing a space between the inner sheet and the outer sheet such that the inner sheet is kept away vertically from the outer sheet, wherein said providing a space between the inner sheet and the outer sheet includes placing the inner sheet on support bars, and wherein said support bars are extended between upper portions of L-shaped link members to connect them; conveying a production device with the inner sheet and the outer sheet into a forming furnace; firing the paint to thereby form the fired substance (40a, 40b); overlapping the inner sheet and the outer sheet; bend-forming the inner sheet and the outer sheet while the inner sheet and the outer sheet overlap each other to produce bent inner and outer sheets (2,3); wherein the bend-forming is carried out in the same forming furnace as the firing the paint; separating the inner and outer sheets (2,3) after bend-forming; washing the inner and outer sheets (2,3); interposing the intermediate film; and press-bonding to form laminate glass.
Hub component for a shaft/hub connection, comprising an internal spline system which is configured in a bore, extends axially from one end of the bore to the other end, and has a plurality of hardened teeth which have a base hardness and grooves which are provided between them, characterized in that the hardness of each tooth is locally lower only at at least one end at least on one tooth flank (29, 30) than in the region of the longitudinal centre of the tooth, which longitudinal centre has the base hardness.
A closure for a container comprising a circular base, a skirt extending from the periphery thereof, a plug seal in the form of an annulus and at least one rib lying on the surface of the base in a substantially radial direction and in contact with the radially inner surface of the plug seal at one end for transferring any movement of the base, relative to the skirt, to the plug seal such that the plug seal is pulled radially inward to allow venting of excess pressure within the container, characterized in that the closure is provided with an outer seal having at least one deformation portion to deform the outer seal locally in the case of overpressure to circumferentially partially interrupt the sealing effect of the outer seal.
A pneumatic tire comprising a pair of beads, a carcass, an inner liner, a pair of chafers, and a pair of tie gums, wherein the carcass extends on and between one of the beads and the other of the beads, the inner liner is joined to an inner surface of the carcass, each chafer is turned up around the bead, each tie gum is located between the carcass and the chafer, and the tie gum joins the inner liner and the chafer and has a volume resistivity of not greater than 10 8 Ω·cm, characterized in that the inner liner is formed from a thermoplastic elastomer composition including a styrene-isobutylene-styrene block copolymer and has a thickness of not greater than 1.5 mm and a joint width of the inner liner and the tie gum is not less than 5 mm and not greater than 10 mm, wherein the joint width is the length from the edge of the inner liner to the first edge of the tie gum in the tire. the carcass extends on and between one of the beads and the other of the beads, the inner liner is joined to an inner surface of the carcass, each chafer is turned up around the bead, each tie gum is located between the carcass and the chafer, and the tie gum joins the inner liner and the chafer and has a volume resistivity of not greater than 10 8 Ω·cm, characterized in that the inner liner is formed from a thermoplastic elastomer composition including a styrene-isobutylene-styrene block copolymer and has a thickness of not greater than 1.5 mm and a joint width of the inner liner and the tie gum is not less than 5 mm and not greater than 10 mm, wherein the joint width is the length from the edge of the inner liner to the first edge of the tie gum in the tire.
A silicon carbide semiconductor device, comprising: a silicon carbide layer having a first main surface and a second main surface opposite to said first main surface, said silicon carbide layer including a drift layer forming said first main surface, including an upper drift layer and a lower drift layer and having a first conductivity type, a body region provided on said drift layer and having a second conductivity type different from said first conductivity type, a source region provided on said body region to be spaced apart from said drift layer by said body region, forming said second main surface, and having said first conductivity type, and a relaxing region partially provided in a surface of the lower drift layer and having said second conductivity type, the upper drift layer being provided on the surface of the lower drift layer, the upper drift layer covering the relaxing region, said relaxing region having an impurity dose amount D rx and a distance L d from said first main surface, said drift layer having an impurity concentration N d between said first main surface and said relaxing region, and relation of D rx > L d ●N d being satisfied; wherein an impurity concentration of the lower drift layer is less than that of the upper drift layer; a gate insulating film provided on said body region so as to connect said source region and said drift layer to each other; a gate electrode provided on said gate insulating film; a first electrode opposed to said first main surface; and a second electrode opposed to said second main surface. a silicon carbide layer having a first main surface and a second main surface opposite to said first main surface, said silicon carbide layer including a drift layer forming said first main surface, including an upper drift layer and a lower drift layer and having a first conductivity type, a body region provided on said drift layer and having a second conductivity type different from said first conductivity type, a source region provided on said body region to be spaced apart from said drift layer by said body region, forming said second main surface, and having said first conductivity type, and a relaxing region partially provided in a surface of the lower drift layer and having said second conductivity type, the upper drift layer being provided on the surface of the lower drift layer, the upper drift layer covering the relaxing region, said relaxing region having an impurity dose amount D rx and a distance L d from said first main surface, said drift layer having an impurity concentration N d between said first main surface and said relaxing region, and relation of D rx > L d ●N d being satisfied; wherein an impurity concentration of the lower drift layer is less than that of the upper drift layer; a gate insulating film provided on said body region so as to connect said source region and said drift layer to each other; a gate electrode provided on said gate insulating film; a first electrode opposed to said first main surface; and a second electrode opposed to said second main surface.
A method of producing aromatics and olefins, comprising: (a) introducing oils derived from coal or wood into a hydrogenation reaction area, so that aromatic components having aromatic rings are partially saturated and cracked; (b) separating components obtained in (a) into hydrocarbonaceous components having 11 or more carbons, hydrocarbonaceous components having 6 ∼ 10 carbons, and hydrocarbonaceous components having 5 or less carbons; and (c) recirculating the hydrocarbonaceous components having 11 or more carbons separated in (b) to (a), feeding the hydrocarbonaceous components having 6 ∼ 10 carbons to an aromatic separation unit and a transalkylation unit so that at least a portion of aromatics is recovered, and feeding the hydrocarbonaceous components having 5 or less carbons to a light separation unit thus obtaining olefins. (a) introducing oils derived from coal or wood into a hydrogenation reaction area, so that aromatic components having aromatic rings are partially saturated and cracked; (b) separating components obtained in (a) into hydrocarbonaceous components having 11 or more carbons, hydrocarbonaceous components having 6 ∼ 10 carbons, and hydrocarbonaceous components having 5 or less carbons; and (c) recirculating the hydrocarbonaceous components having 11 or more carbons separated in (b) to (a), feeding the hydrocarbonaceous components having 6 ∼ 10 carbons to an aromatic separation unit and a transalkylation unit so that at least a portion of aromatics is recovered, and feeding the hydrocarbonaceous components having 5 or less carbons to a light separation unit thus obtaining olefins.
An air intake for a nacelle of an aircraft engine, the air intake including a front lip connecting a substantially cylindrical inner wall and a substantially cylindrical outer wall, a front mounting flange configured to cooperate with a rear flange of a wall of the turbojet engine forming a fan casing, the air intake having a support structure extending from a lower end configured to be secured to the fan casing, by the rear flange, up to an upper end in contact at least with a downstream portion of the outer wall of the air intake, said support structure including or forming access apertures configured to be crossed by maintenance tools during the operations of maintenance of the air intake, characterized in that the lower end of the support structure is configured to be secured to a rear face of the rear flange.
A bioactive lipid composition comprising: a first lipid component comprising sciadonic acid in free acid form and a second lipid component comprising a conjugated linoleic acid in free acid form, wherein said bioactive composition comprises at least 10%, preferably at least 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95%, or 99% of said sciadonic acid w/w and at least 1%, preferably at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, or 90% of said linoleic acid w/w. a first lipid component comprising sciadonic acid in free acid form and a second lipid component comprising a conjugated linoleic acid in free acid form, wherein said bioactive composition comprises at least 10%, preferably at least 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95%, or 99% of said sciadonic acid w/w and at least 1%, preferably at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, or 90% of said linoleic acid w/w.
A lubrication system for a gas turbine engine, the lubrication system comprising an oil tank, a sump (128, 130), a bearing (28, 30), and characterized by a breather assembly coupled to the oil tank, the sump (128, 130), and atmosphere, wherein the breather assembly includes a breather housing that defines a breather cavity, a tank port arranged to transport oil droplets and carrier air from the oil tank into the breather cavity, a vent port arranged to transport air from the breather cavity to the atmosphere, a sump air-bleed port arranged to transport pressurized air from the sump (128, 130) into the breather cavity, a sump oil-return port arranged to transport oil from the breather cavity to the sump (128, 130); and a baffle (146, 246, 346, 446) arranged in the breather cavity between the tank port and the sump air-bleed port to block pressurized air from the sump air-bleed port from directly impinging into the tank port.
A lamp having an envelope that includes a globe and a case, an interior space of the envelope being divided in two by a mount closing an opening of the globe, the lamp containing, in a globe side of the interior space, a semiconductor light-emitting element and, in a case side of the interior space, a circuit unit for causing the semiconductor light-emitting element to emit light, wherein the mount is a circular disc having a side face that is at least partially joined to the globe by a first adhesive, an opening end of the globe is connected to the case by a second adhesive, wherein the second adhesive is less thermo-conductive than the case, the semiconductor light-emitting element is thermally connected to the mount and spatially separated from the envelope, a surface contact region where a part of the mount and an inner circumferential surface of the globe are joined by the first adhesive is larger than a surface contact region between the mount and the case, and the mount and the case are joined to the globe such that, during light emission, at least as much heat from the semiconductor light-emitting element is propagated from the mount to the globe as from the mount to the case.
A procatalyst for the polymerization of olefins, which procatalyst comprises a compound represented by formula A as an internal electron donor: wherein R is hydrogen or a methyl group; N is nitrogen atom; 0 is oxygen atom; and C is carbon atom.
A cell comprising a first cDNA sequence which encodes a heavy chain variable region and a second cDNA sequence which encodes a light chain variable region, wherein the cell produces a human antibody or antibody fragment comprising the heavy chain variable region and the light chain variable region, wherein the heavy chain variable region encoded by the first cDNA sequence comprises (a) a heavy chain complementarity determining region CDR1 comprising the amino acid sequence GASINLYD (SEQ ID NO.: 8), (b) a heavy chain CDR2 comprising the amino acid sequence GYISGST (SEQ ID NO.: 9), and (c) a heavy chain CDR3 comprising the amino acid sequence ARDVGWGPQYYYGLDV (SEQ ID NO.: 10); and wherein the light chain variable region encoded by the second cDNA sequence comprises (a) a light chain CDR1 comprising the amino acid sequence HSVQSTS (SEQ ID NO.: 14), (b) a light chain CDR2 comprising the amino acid sequence GGS (SEQ ID NO.: 15), and (c) a light chain CDR3 comprising the amino acid sequence QQSDRSPPIT (SEQ ID NO.: 16), wherein the antibody or antibody fragment binds with specificity to RSV F protein antigenic region II/ A with an affinity of greater than 1 x 10 -9 M.
A liquid treatment apparatus, comprising a pumping device configured to pump a liquid to be treated into at least one treatment chamber comprising treatment equipment configured to perform UV-light treatment of said liquid flowing through the at least one treatment chamber, characterized in that the liquid treatment apparatus comprises an air trap vessel arranged upstream said pumping device and provided with an inlet connection for receiving liquid to be treated and a first outlet connection for connection and liquid supply, directly or indirectly, to said pumping device, wherein said air trap vessel is configured to be at least partly filled with a priming liquid before the pumping device is started to prevent air bubbles from being sucked into said pumping device, and that said first outlet connection is arranged below a surface of said priming liquid when the air trap vessel is at least partly filled with said priming liquid, wherein said air trap vessel has a volume which is larger than a volume of tubing between a tank including the liquid to be treated and the inlet connection and wherein air, primarily in the connection tubing, is sucked into the air trap vessel when the pump is started and air is thereby trapped in the vessel and not sucked into the pump and wherein said air trap vessel is essentially air-tight, wherein the inlet of the air trap vessel is arranged so that the liquid entering the air trap vessel is damped against an inner surface of the vessel or wherein said air trap vessel is provided with a damping member configured to damp and distribute the liquid supplied via the inlet connection.
A friction damper, particularly suitable for a bogie suspension system, suitable to be placed in a guide of the bogie suspension system, the friction damper containing a guide cylinder suitable to be mounted between a fifth wheel coupling of the bogie suspension system and the guide of the bogie suspension system, which guide cylinder is closed from one side and has a spring element inside, which guide cylinder comprises a slidable friction element, characterised in that the guide cylinder is closed from one side by a closing cap, in the shape of a horizontal C that includes the outer wall of the guide cylinder when mounted horizontally, with an inner flange on the opposite side, whereas the spring element placed inside the guide cylinder is adjacent to the slidable friction element in the shape of a cylinder fitted with a flange the diameter of which corresponds to the inner diameter of the guide cylinder, whereas the flange is located inside the guide cylinder, while the remaining part of the friction element protrudes outside the guide cylinder; wherein, when the spring element is most stretched, the flange of the friction element rests on the inner flange of the guide cylinder.
A method of freezing CHO cells for storage comprising freezing the CHO cells in a freezing medium, wherein the freezing medium comprises a buffered solution and a cryoprotective agent, and wherein the pH of the freezing medium is adjusted to a pH of 7.5 to 8.5 prior to freezing.
A method comprising: scheduling jobs for a program build to execute in parallel across a plurality of nodes; predicting the files required to complete each of the jobs; preloading the files to each node prior to the execution of each job; and caching the files at the nodes across multiple jobs according to a specified cache management policy, the cache management policy comprising caching files of a first type on the nodes across multiple jobs and flushing files of a second type from the nodes after each job, wherein the first type of file is one which is likely to be used by multiple jobs whereas the second type of file is one which is unlikely to be used by multiple jobs and further wherein the first type of file is a header file and the second type of file is an object file. scheduling jobs for a program build to execute in parallel across a plurality of nodes; predicting the files required to complete each of the jobs; preloading the files to each node prior to the execution of each job; and caching the files at the nodes across multiple jobs according to a specified cache management policy, the cache management policy comprising caching files of a first type on the nodes across multiple jobs and flushing files of a second type from the nodes after each job, wherein the first type of file is one which is likely to be used by multiple jobs whereas the second type of file is one which is unlikely to be used by multiple jobs and further wherein the first type of file is a header file and the second type of file is an object file.
A process to prepare a multi-metallic procatalyst comprising (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof and an active non-metallic or metallic halide to form a halogenated magnesium support; (b) contacting the magnesium halide support with a conditioning compound containing an element selected from the group consisting of boron, aluminum, gallium, indium and tellurium under conditions sufficient to form a conditioned magnesium halide support, including a temperature ranging from 0 °C to 50 °C for a time ranging from 4 to 24 hours; (c) contacting the conditioned magnesium halide support and a compound containing, as a first metal, titanium, to form a supported titanium compound; (d) contacting the supported titanium compound and a second metal and a third metal independently selected from the group consisting of zirconium, hafnium, vanadium, niobium, tantalum, chromium, molybdenum, and tungsten, provided that the second metal and the third metal are not the same; and further provided that the molar ratio of the magnesium to a combination of the titanium and the second and third metals ranges from 30:1 to 5:1; under conditions sufficient to form a multi-metallic procatalyst. (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof and an active non-metallic or metallic halide to form a halogenated magnesium support; (b) contacting the magnesium halide support with a conditioning compound containing an element selected from the group consisting of boron, aluminum, gallium, indium and tellurium under conditions sufficient to form a conditioned magnesium halide support, including a temperature ranging from 0 °C to 50 °C for a time ranging from 4 to 24 hours; (c) contacting the conditioned magnesium halide support and a compound containing, as a first metal, titanium, to form a supported titanium compound; (d) contacting the supported titanium compound and a second metal and a third metal independently selected from the group consisting of zirconium, hafnium, vanadium, niobium, tantalum, chromium, molybdenum, and tungsten, provided that the second metal and the third metal are not the same; and further provided that the molar ratio of the magnesium to a combination of the titanium and the second and third metals ranges from 30:1 to 5:1; under conditions sufficient to form a multi-metallic procatalyst.
A tank pressure regulation system for a waste heat recovery system comprising an expansion tank to allow for a working fluid of the waste heat recovery system to expand, an expander for receiving evaporated working fluid and for extracting work through expansion of the evaporated working fluid, and a condenser arranged to receive the evaporated working fluid and for liquefying the evaporated working fluid by heat exchange with a condenser cooling media, the tank pressure regulation system comprising: a compressor comprising an inlet for withdrawing gas and an outlet for providing pressurized gas, and a valve arrangement connectable in fluid communication with the expansion tank and with the inlet and outlet of the compressor, wherein, when in use and connected to the compressor and the expansion tank, the valve arrangement is responsive to a control signal to alternately connect the outlet of the compressor to the expansion tank to thereby increase the pressure in the expansion tank, and connect the inlet of the compressor to the expansion tank to withdraw gas from the expansion tank to thereby reduce the pressure in the expansion tank, the tank pressure regulation system is characterized in that it further comprises a control unit configured to acquire a signal indicative of a present pressure of the working fluid in the waste heat recovery system, and determine the present condensation temperature of the working fluid based on the present pressure of the working fluid, and to provide the control signal to the valve arrangement to regulate the pressure in the expansion tank based on the present condensation temperature of the working fluid to a pressure below ambient pressure. a compressor comprising an inlet for withdrawing gas and an outlet for providing pressurized gas, and a valve arrangement connectable in fluid communication with the expansion tank and with the inlet and outlet of the compressor, wherein, when in use and connected to the compressor and the expansion tank, the valve arrangement is responsive to a control signal to alternately connect the outlet of the compressor to the expansion tank to thereby increase the pressure in the expansion tank, and connect the inlet of the compressor to the expansion tank to withdraw gas from the expansion tank to thereby reduce the pressure in the expansion tank, the tank pressure regulation system is characterized in that it further comprises a control unit configured to acquire a signal indicative of a present pressure of the working fluid in the waste heat recovery system, and determine the present condensation temperature of the working fluid based on the present pressure of the working fluid, and to provide the control signal to the valve arrangement to regulate the pressure in the expansion tank based on the present condensation temperature of the working fluid to a pressure below ambient pressure.