mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing waterglass-based silica aerogels, wherein the process comprises: (a) subjecting a certain amount of a vinyltrialcoxysilane to hydrolysis in the presence of water and an inorganic acid under stirring conditions to produce a hydrolyzed vinyltrialcoxysilane solution; (b) treating a waterglass solution with an acidic cationic-exchange resin to produce a silicic acid solution; (c) forming a sol phase by contacting the hydrolyzed vinylalcoxysilane solution with the silicic acid solution; (d) forming a gel phase by adjusting the pH of the sol phase to a value in the range of from 4 to 6; and (e) subjecting the gel phase to supercritical drying to produce an aerogel. (a) subjecting a certain amount of a vinyltrialcoxysilane to hydrolysis in the presence of water and an inorganic acid under stirring conditions to produce a hydrolyzed vinyltrialcoxysilane solution; (b) treating a waterglass solution with an acidic cationic-exchange resin to produce a silicic acid solution; (c) forming a sol phase by contacting the hydrolyzed vinylalcoxysilane solution with the silicic acid solution; (d) forming a gel phase by adjusting the pH of the sol phase to a value in the range of from 4 to 6; and (e) subjecting the gel phase to supercritical drying to produce an aerogel.
A double stranded nucleic acid molecule comprising a sense strand and an antisense strand, wherein the antisense strand comprises a non-nucleotide moiety selected from the group consisting of C3Pi-C3OH (propyl phospho-propanol), C3Pi-C3Pi (propylphospho- propyl phosphate), C3Pi-C3Ps (propyl phospho- propyl phosphorothioate), C3Pi-rAb (propyl phosphate- riboabasic moiety) and C3Pi-dAb (propyl phosphate- deoxyriboabasic moiety) moieties covalently attached via a phosphate base linkage at a 3' or a 2' position of the sugar residue at the 3' terminal nucleotide.
Escape route security device for securing a door in an escape route, having an emergency button and a locking device that can be switched, in particular disengaged, by the emergency button to lock and/or release the door, wherein the emergency button is arranged in or on a housing and has a touch-sensitive display that can be controlled by a control device, preferably a touchscreen, which can be moveably mounted in the housing, and the control device has an alarm mode in which the control device generates an alarm in the event of an actuation or touching of the display and/or controls the locking device for detaching a lock, characterised in that the control device can be switched from the alarm mode into an operating mode by the control device, in the alarm mode, displaying an operating panel or an operating button on the display and being formed in such a way that it does not generate an alarm in the event of touching of the operating panel or operating button, but switches to the operating mode, wherein the control device has an operating time counter, and the control device triggers the operating time counter when switching from the alarm mode into the operating mode, and the operating time counter switches the control device back from the operating mode into the alarm mode once a determined, in particular pre-selectable, time period has run out.
Method for on-line monitoring an electrolytic capacitor condition, characterized in that the method comprises the steps of: - measuring a voltage ripple across the electrolytic capacitor and the current ripple flowing through the electrolytic capacitor, - measuring the temperature of the electrolytic capacitor, the method is characterised by: - emulating the monitored electrolytic capacitor using a capacitor model comprising a capacitor and a solid state adjustable resistor, - applying one of the measured ripple to the capacitor model, - adjusting the solid state adjustable resistor to minimize the error between an estimated ripple provided by the capacitor model and the other measured ripple not applied to the capacitor model, - estimating an equivalent series resistance of the monitored electrolytic capacitor using value of the solid state adjustable resistor. - measuring a voltage ripple across the electrolytic capacitor and the current ripple flowing through the electrolytic capacitor, - measuring the temperature of the electrolytic capacitor, - emulating the monitored electrolytic capacitor using a capacitor model comprising a capacitor and a solid state adjustable resistor, - applying one of the measured ripple to the capacitor model, - adjusting the solid state adjustable resistor to minimize the error between an estimated ripple provided by the capacitor model and the other measured ripple not applied to the capacitor model, - estimating an equivalent series resistance of the monitored electrolytic capacitor using value of the solid state adjustable resistor.
A method implemented by a wireless terminal for reporting channel state information, CSI, to a wireless communication network, comprising: receiving reference symbols on a set of channel state information reference symbol, CSI-RS, resources; receiving from the wireless communication network a configuration message that indicates to the wireless terminal to use a certain CSI-RS resource in the set for determining a common transmission rank for the set of CSI-RS resources; determining the common transmission rank for the set of CSI-RS resources as being the same as a transmission rank for the certain CSI-RS resource indicated by the configuration message; generating CSI feedback to report the common transmission rank as an individual transmission rank for each CSI-RS resource in the set; and transmitting the CSI feedback to the wireless communication network. receiving reference symbols on a set of channel state information reference symbol, CSI-RS, resources; receiving from the wireless communication network a configuration message that indicates to the wireless terminal to use a certain CSI-RS resource in the set for determining a common transmission rank for the set of CSI-RS resources; determining the common transmission rank for the set of CSI-RS resources as being the same as a transmission rank for the certain CSI-RS resource indicated by the configuration message; generating CSI feedback to report the common transmission rank as an individual transmission rank for each CSI-RS resource in the set; and transmitting the CSI feedback to the wireless communication network.
A method comprising: performing a laser ablation process that removes material from at least a portion of a workpiece surface of a substrate to generate a plurality of laser spots at a plurality of irregularly arranged locations to define an ablated area at the portion of the workpiece surface; the method is characterised in that the step of performing the laser ablation process includes: impinging the workpiece surface with a laser beam provided by a laser at the plurality of irregularly arranged locations by moving at least one of the laser or the workpiece surface; and generating the plurality of laser spots at the plurality of irregularly arranged locations along a plurality of raster rows; and wherein the impinging of the workpiece surface with the laser beam is so configured that at least one of the plurality of raster rows is non-parallel with at least one other of the plurality of raster rows, thereby reducing the appearance of or eliminating a diffraction effect that can occur when the ablated area of the workpiece surface interacts with light. performing a laser ablation process that removes material from at least a portion of a workpiece surface of a substrate to generate a plurality of laser spots at a plurality of irregularly arranged locations to define an ablated area at the portion of the workpiece surface; the method is characterised in that the step of performing the laser ablation process includes: impinging the workpiece surface with a laser beam provided by a laser at the plurality of irregularly arranged locations by moving at least one of the laser or the workpiece surface; and generating the plurality of laser spots at the plurality of irregularly arranged locations along a plurality of raster rows; and impinging the workpiece surface with a laser beam provided by a laser at the plurality of irregularly arranged locations by moving at least one of the laser or the workpiece surface; and generating the plurality of laser spots at the plurality of irregularly arranged locations along a plurality of raster rows; and wherein the impinging of the workpiece surface with the laser beam is so configured that at least one of the plurality of raster rows is non-parallel with at least one other of the plurality of raster rows, thereby reducing the appearance of or eliminating a diffraction effect that can occur when the ablated area of the workpiece surface interacts with light.
Mixing and dispensing hopper, comprising a trough provided with a bottom wall, and a member for emptying the contents of the hopper, characterized in that the trough is separated into two compartments via a separating wall (Sp), the first compartment being intended for mixing the loose-fill material that it is able to contain and the second compartment being intended for emptying the hopper, the hopper including a mixing and transferring member disposed in the first compartment, the emptying member being disposed in the second compartment, a passage (Ps) for transferring the material between the two compartments (C1 and C2) passing through the lower portion of the separating wall (Sp), a discharge opening passing through the second compartment, the mixing and transferring member comprising a helicoid (Hce) which is able to rotate close to the bottom wall and which, in a direction of rotation ("-") about its axis, stirs the material in the first compartment and, in its other direction of rotation ("+"), in particular transfers the material into the second compartment through said passage (Ps), the emptying member comprising paddles (Pt) designed to discharge, in said other direction of rotation ("+") about its axis, the material contained in the second compartment through the discharge opening. the mixing and transferring member comprising a helicoid (Hce) which is able to rotate close to the bottom wall and which, in a direction of rotation ("-") about its axis, stirs the material in the first compartment and, in its other direction of rotation ("+"), in particular transfers the material into the second compartment through said passage (Ps), the emptying member comprising paddles (Pt) designed to discharge, in said other direction of rotation ("+") about its axis, the material contained in the second compartment through the discharge opening.
A method for producing ethylene oxide comprising: a) providing one or more feed components, wherein the one or more feed components contains at least ethylene obtained by dehydrating ethanol; b) contacting the one or more feed components with a desulfurization catalyst, comprising an alumina support having a surface area of greater than about 100 m 2 /g and an amount of silver, wherein at least 20% of the silver is present as oxidized silver, to desulfurize the feed; c) contacting the one or more desulfurized feed components with a silver-containing epoxidation catalyst disposed inside an ethylene oxide reactor to form a reaction gas comprising ethylene oxide; wherein said one or more desulfurized feed components has a sulfur concentration of not more than about 2 ppmv; and d) placing the desulfurization catalyst in fluid communication with a source of oxygen, thereby exposing the desulfurization catalyst to the oxygen and regenerating the desulfurization catalyst. a) providing one or more feed components, wherein the one or more feed components contains at least ethylene obtained by dehydrating ethanol; b) contacting the one or more feed components with a desulfurization catalyst, comprising an alumina support having a surface area of greater than about 100 m 2 /g and an amount of silver, wherein at least 20% of the silver is present as oxidized silver, to desulfurize the feed; c) contacting the one or more desulfurized feed components with a silver-containing epoxidation catalyst disposed inside an ethylene oxide reactor to form a reaction gas comprising ethylene oxide; wherein said one or more desulfurized feed components has a sulfur concentration of not more than about 2 ppmv; and d) placing the desulfurization catalyst in fluid communication with a source of oxygen, thereby exposing the desulfurization catalyst to the oxygen and regenerating the desulfurization catalyst.
A rotor shaft for a wind turbine, wherein the rotor shaft is at least partially hollow, comprising • a conduit pipe, extending in the interior of the rotating rotor shaft and being stationary and accommodating electric lines, • a transmission device, arranged at least partially in the rotor shaft, for the electric connection between a stationary nacelle and a rotating rotor of the wind turbine, • wherein the transmission device features a first body, stationary and connected to the conduit pipe, and a second body rotating with the rotor shaft, and wherein there is an electric sliding contact between the first and the second body (24, 28), characterized in that • a torque transmitting connection between the casing (30, 36) and the second body of the transmission device is provided, and • a casing (30, 36) surrounding the transmission device and formed separately from the second body, which is connected to the rotor shaft and/or adapted to be connected to a rotor hub of the wind turbine, and which rotates with the rotor shaft. • a conduit pipe, extending in the interior of the rotating rotor shaft and being stationary and accommodating electric lines, • a transmission device, arranged at least partially in the rotor shaft, for the electric connection between a stationary nacelle and a rotating rotor of the wind turbine, • wherein the transmission device features a first body, stationary and connected to the conduit pipe, and a second body rotating with the rotor shaft, and wherein there is an electric sliding contact between the first and the second body (24, 28), • a torque transmitting connection between the casing (30, 36) and the second body of the transmission device is provided, and • a casing (30, 36) surrounding the transmission device and formed separately from the second body, which is connected to the rotor shaft and/or adapted to be connected to a rotor hub of the wind turbine, and which rotates with the rotor shaft.
A compound of Formula 1: wherein R 1, Z 1, s, f, Z 2 and J are defined as follows, and wherein when J is a phenyl ring, the ring is connected to Z 2 and the oxadiazole ring in a 1,4-orientation: R 1 Z 1 s f Z 2 J 2-Cl-Ph direct bond 2 0 NH phenyl Cl 2 CH direct bond 1 0 direct bond phenyl Me direct bond 2 0 NH phenyl Ph direct bond 2 0 NH phenyl Et direct bond 2 0 CH 2 phenyl Me direct bond 2 0 CH 2 phenyl (MeO) 2 CHCH 2 NH 2 0 direct bond phenyl Ph direct bond 2 0 N(Me) phenyl CH 3 C(=O) N(Me) 2 0 direct bond phenyl 3,5-di-Cl-Ph NH 2 0 direct bond phenyl CH 2 =CHCH 2 direct bond 2 0 direct bond Ph direct bond 2 0 NH 4-EtOC(=O)-Ph NH 2 0 direct bond phenyl (Me) 2 CHCH 2 direct bond 2 0 direct bond 4-F-Ph direct bond 2 0 NH 4-Me-Ph direct bond 2 0 NH 2-Cl-Ph direct bond 2 0 NH 4-Cl-Ph direct bond 2 0 NH 4-MeO-Ph direct bond 2 0 NH CH 3 direct bond 2 0 NHCH 2 phenyl Ph direct bond 2 0 NHCH 2 phenyl 3-Cl-Ph direct bond 2 0 NH phenyl 2-CF 3 -Ph direct bond 2 0 NH phenyl Me direct bond 2 0 O phenyl CH 3 C(=O) N(OMe) 2 0 direct bond phenyl CH 3 C(=O) N(Et) 2 0 direct bond phenyl Me direct bond 2 0 direct bond phenyl Me direct bond 1 0 direct bond phenyl wherein the bond of the pyridine J projecting to the left is bonded to Z 2, and the bond projecting to the right is bonded to the oxadiazole ring in Formula 1. wherein R 1, Z 1, s, f, Z 2 and J are defined as follows, and wherein when J is a phenyl ring, the ring is connected to Z 2 and the oxadiazole ring in a 1,4-orientation: R 1 Z 1 s f Z 2 J 2-Cl-Ph direct bond 2 0 NH phenyl Cl 2 CH direct bond 1 0 direct bond phenyl Me direct bond 2 0 NH phenyl Ph direct bond 2 0 NH phenyl Et direct bond 2 0 CH 2 phenyl Me direct bond 2 0 CH 2 phenyl (MeO) 2 CHCH 2 NH 2 0 direct bond phenyl Ph direct bond 2 0 N(Me) phenyl CH 3 C(=O) N(Me) 2 0 direct bond phenyl 3,5-di-Cl-Ph NH 2 0 direct bond phenyl CH 2 =CHCH 2 direct bond 2 0 direct bond Ph direct bond 2 0 NH 4-EtOC(=O)-Ph NH 2 0 direct bond phenyl (Me) 2 CHCH 2 direct bond 2 0 direct bond 4-F-Ph direct bond 2 0 NH 4-Me-Ph direct bond 2 0 NH 2-Cl-Ph direct bond 2 0 NH 4-Cl-Ph direct bond 2 0 NH 4-MeO-Ph direct bond 2 0 NH CH 3 direct bond 2 0 NHCH 2 phenyl Ph direct bond 2 0 NHCH 2 phenyl 3-Cl-Ph direct bond 2 0 NH phenyl 2-CF 3 -Ph direct bond 2 0 NH phenyl Me direct bond 2 0 O phenyl CH 3 C(=O) N(OMe) 2 0 direct bond phenyl CH 3 C(=O) N(Et) 2 0 direct bond phenyl Me direct bond 2 0 direct bond phenyl Me direct bond 1 0 direct bond phenyl wherein the bond of the pyridine J projecting to the left is bonded to Z 2, and the bond projecting to the right is bonded to the oxadiazole ring in Formula 1.
A compact gaseous delivery system for an exhaust system of an internal combustion engine, the system comprising: a first conduit having an inlet configured to receive a fluid, the first conduit having a plurality of openings (612, 614, 616) along a length of the first conduit, the plurality of openings (612, 614, 616) including a first opening with a first diameter, a second opening with a second diameter, and a third opening having a third diameter, the second diameter being greater than the first diameter and the third diameter being greater than the first diameter and the second diameter; and a second conduit extending from a portion of the first conduit and in fluid communication with the first conduit, the second conduit transporting the fluid received by the inlet of the first conduit, the second conduit having a second plurality of openings (612, 614, 616) along a length of the second conduit, the second plurality of openings (612, 614, 616) including a fourth opening with the first diameter, a fifth opening with the second diameter, and a sixth opening having the third diameter. a first conduit having an inlet configured to receive a fluid, the first conduit having a plurality of openings (612, 614, 616) along a length of the first conduit, the plurality of openings (612, 614, 616) including a first opening with a first diameter, a second opening with a second diameter, and a third opening having a third diameter, the second diameter being greater than the first diameter and the third diameter being greater than the first diameter and the second diameter; and a second conduit extending from a portion of the first conduit and in fluid communication with the first conduit, the second conduit transporting the fluid received by the inlet of the first conduit, the second conduit having a second plurality of openings (612, 614, 616) along a length of the second conduit, the second plurality of openings (612, 614, 616) including a fourth opening with the first diameter, a fifth opening with the second diameter, and a sixth opening having the third diameter.
A process for producing a specified light pattern on a road using a motor vehicle headlight, wherein at least one modulated laser beam (2a... 2d) is directed onto a means of light conversion through a pivoting micromirror, and the light image produced on the means of light conversion is projected onto the road, characterized in that the laser beams (2a... 2d) of at least two laser light sources (1a... 1d) with a specified beam cross section are directed, through the micromirror oscillating about an axis, onto the means of light conversion to produce at least two light bands (10a... 10d) lying next to one another on the means of light conversion.
A laminate, comprising a layer including an automobile interior material wherein the automobile interior material comprises an injection molded product comprising a thermoplastic elastomer composition obtained by crosslinking a composition comprising components to below: 100 parts by mass of a polypropylene-based resin, from 80 to 200 parts by mass of a hydrogenated product of a block copolymer having at least one block mainly including a conjugated diene monomer unit and at least one block mainly including a vinyl aromatic monomer unit, from 100 to 250 parts by mass of a softening agent, and from 5 to 20 parts by mass of polyorganosiloxane, the thermoplastic elastomer composition satisfying conditions to below: a content of the vinyl aromatic monomer unit in the component is from 30 to 80% by mass, a melt flow rate (ASTM D1238, 230°C, load of 1.2 kg; MFR) is from 35 to 85g/10min, a JIS A hardness is from 60 to 90, a compression set (JIS K6262, 100°C, 22 hours) is from 30 to 70%, and a tensile elongation at -30°C is not less than 80%; and a layer including a core material, laminated on the layer including the automobile interior material, wherein the core material is at least one selected from the group consisting of polypropylene, acrylonitrile butadiene styrene resin, polycarbonate/acrylonitrile butadiene styrene alloy (PC/ABS alloy), and modified polyphenylene ether resin. 100 parts by mass of a polypropylene-based resin, from 80 to 200 parts by mass of a hydrogenated product of a block copolymer having at least one block mainly including a conjugated diene monomer unit and at least one block mainly including a vinyl aromatic monomer unit, from 100 to 250 parts by mass of a softening agent, and from 5 to 20 parts by mass of polyorganosiloxane, a content of the vinyl aromatic monomer unit in the component is from 30 to 80% by mass, a melt flow rate (ASTM D1238, 230°C, load of 1.2 kg; MFR) is from 35 to 85g/10min, a JIS A hardness is from 60 to 90, a compression set (JIS K6262, 100°C, 22 hours) is from 30 to 70%, and a tensile elongation at -30°C is not less than 80%; and
Centrifuge, in particular a decanter centrifuge, for separating a suspension into multiple components, with a rotor and a worm arranged inside the rotor, wherein the rotor is configured at least partially as a solid bowl rotor with at least a cylindrical section and a conical section, wherein the rotor has a first end face, concluding the cylindrical section of the rotor, with a first diameter, and a second end face, concluding the conical section, with a second smaller diameter, wherein a flange with one or more openings is arranged at the first end face, wherein one or more weir plates are fastened to the flange, which weir plates at least partially cover the openings and are arranged to set a liquid level inside the rotor and form a first radial outlet edge for letting out a liquid at the first end face, characterised in that the weir plates at least partially have an elastically deformable coating on their side facing the flange.
A liquid crystal display device comprising: a liquid crystal panel displaying an image; a plurality of lamps installed below the liquid crystal panel and providing light to the liquid crystal panel; a plurality of optical sheets installed between the plurality of lamps and the liquid crystal panel; a reflection plate installed below the plurality of lamps; and a diffuser plate formed of a wire mesh having predetermined tension and installed between the plurality of lamps and the optical sheet, characterized in that the entire surface or outermost portion of the diffuser plate comprises an aged emulsion coated portion, and wherein the emulsion is a diazo-based emulsion or a diazo dual cure-based emulsion. a liquid crystal panel displaying an image; a plurality of lamps installed below the liquid crystal panel and providing light to the liquid crystal panel; a plurality of optical sheets installed between the plurality of lamps and the liquid crystal panel; a reflection plate installed below the plurality of lamps; and a diffuser plate formed of a wire mesh having predetermined tension and installed between the plurality of lamps and the optical sheet, characterized in that the entire surface or outermost portion of the diffuser plate comprises an aged emulsion coated portion, and wherein the emulsion is a diazo-based emulsion or a diazo dual cure-based emulsion.