mhurhangee/ep-ind-claims huggingface dataset:
An antenna element (10, 110) comprising, a reflector plate, a radiating element (20, 120) comprising a balun device (40, 140) and a dipole device (50, 150) for operating in a first frequency band, wherein the dipole device (50, 150) is connected to the reflector plate by the balun device (40, 140), wherein a distance (91, 191) from the dipole device (50,150) to the reflector plate is more than 1/4 of a wavelength at a central frequency of the first frequency band, and wherein the balun device (40,140) comprises a short-circuit (43, 44, 143) at a distance from the dipole device (50, 150) between 0.15 and 0.35 of said wavelength, inclusively, a sub-reflector (30, 130) surrounding the radiating element (20, 120) and arranged between the reflector plate and the dipole device (50, 150), comprising: a bottom section for connection to the reflector plate, a top section wider than the bottom section, and an opening through which the balun device (40, 140) traverses the sub-reflector (30, 130). a reflector plate, a radiating element (20, 120) comprising a balun device (40, 140) and a dipole device (50, 150) for operating in a first frequency band, wherein the dipole device (50, 150) is connected to the reflector plate by the balun device (40, 140), wherein a distance (91, 191) from the dipole device (50,150) to the reflector plate is more than 1/4 of a wavelength at a central frequency of the first frequency band, and wherein the balun device (40,140) comprises a short-circuit (43, 44, 143) at a distance from the dipole device (50, 150) between 0.15 and 0.35 of said wavelength, inclusively, wherein a distance (91, 191) from the dipole device (50,150) to the reflector plate is more than 1/4 of a wavelength at a central frequency of the first frequency band, and wherein the balun device (40,140) comprises a short-circuit (43, 44, 143) at a distance from the dipole device (50, 150) between 0.15 and 0.35 of said wavelength, inclusively, a sub-reflector (30, 130) surrounding the radiating element (20, 120) and arranged between the reflector plate and the dipole device (50, 150), comprising: a bottom section for connection to the reflector plate, a top section wider than the bottom section, and an opening through which the balun device (40, 140) traverses the sub-reflector (30, 130). a bottom section for connection to the reflector plate, a top section wider than the bottom section, and an opening through which the balun device (40, 140) traverses the sub-reflector (30, 130).
A process for polymerizing olefins at temperatures of from 30°C to 140°C and pressures of from 1.0 MPa to 10 MPa in the presence of a polymerization catalyst in a multistage polymerization of olefins in at least two serially connected gas-phase polymerization reactors, the process for transferring polyolefin particles from a first gas-phase polymerization reactor to a second gas-phase polymerization reactor comprising the steps of a) discharging polyolefin particles from the first gas-phase polymerization reactor into a separation chamber in which the polyolefin particles are separated from concomitantly discharged reaction gas, the separation chamber being at a lower pressure than the pressure in the first gas-phase polymerization reactor; b) transferring the polyolefin particles within the separation chamber into a lower part of the separation chamber which contains a bed of polyolefin particles which moves from top to bottom of this part of the separation chamber and into which a fluid is introduced in an amount that an upward stream of the fluid in the bed of polyolefin particles above the fluid introduction point is induced, c) withdrawing polyolefin particles from the lower end of said lower part and transferring them to one of at least two lock hoppers working intermittently in parallel; and d) simultaneously pressurizing another of the at least two lock hoppers working intermittently by means of a gas comprising reaction gas coming from the second gas-phase polymerization reactor. a) discharging polyolefin particles from the first gas-phase polymerization reactor into a separation chamber in which the polyolefin particles are separated from concomitantly discharged reaction gas, the separation chamber being at a lower pressure than the pressure in the first gas-phase polymerization reactor; b) transferring the polyolefin particles within the separation chamber into a lower part of the separation chamber which contains a bed of polyolefin particles which moves from top to bottom of this part of the separation chamber and into which a fluid is introduced in an amount that an upward stream of the fluid in the bed of polyolefin particles above the fluid introduction point is induced, c) withdrawing polyolefin particles from the lower end of said lower part and transferring them to one of at least two lock hoppers working intermittently in parallel; and d) simultaneously pressurizing another of the at least two lock hoppers working intermittently by means of a gas comprising reaction gas coming from the second gas-phase polymerization reactor.
A dynamically positioned floating unit with a connection system for connecting and disconnecting the dynamically positioned floating unit to and from a buoy which is connected to a subsea installation, where the buoy comprises a first connection device for connecting pipes and/or lines for transfer of fluid, control signals and/or electric power between the buoy and the floating unit; where the connection system further comprises: - a support structure which is laterally movable relative to the dynamically positioned floating unit; - a swivel stack arrangement movably mounted on the support structure, where the swivel stack arrangement comprises • a second connection device for connecting to the first connection device on the buoy; • shut-off devices for opening and closing at least one of the pipes and/or lines in the first and second connection device when connecting and disconnecting the buoy; and • a turret bearing configured for controlled rotation of the buoy relative to the dynamically positioned floating unit. - a support structure which is laterally movable relative to the dynamically positioned floating unit; - a swivel stack arrangement movably mounted on the support structure, where the swivel stack arrangement comprises • a second connection device for connecting to the first connection device on the buoy; • shut-off devices for opening and closing at least one of the pipes and/or lines in the first and second connection device when connecting and disconnecting the buoy; and • a turret bearing configured for controlled rotation of the buoy relative to the dynamically positioned floating unit. • a second connection device for connecting to the first connection device on the buoy; • shut-off devices for opening and closing at least one of the pipes and/or lines in the first and second connection device when connecting and disconnecting the buoy; and • a turret bearing configured for controlled rotation of the buoy relative to the dynamically positioned floating unit.
Vapor barrier comprising at least two layers, of which one layer (layer 1) is humidity-variable and the quotient for the water vapor diffusion resistance of the s d value at 25% mean relative air humidity to the s d value at 71.5% mean relative air humidity is greater than 3, and the other layer (layer 2) is essentially humidity-independent and the quotient for the water vapor diffusion resistance of the s d value at 25% mean relative air humidity to the s d value at 71.5% mean relative air humidity is less than 1.5, wherein the s d value in each case relates to a determination according to ISO 12572:2001, wherein the layer 2 has a thickness in the range of 40 μm to 350 μm, and wherein the material for the layer 2 is selected from the group consisting of polyester, thermoplastic ether-ester copolymers (TPEE), polyolefins, polyethylenes, high density polyethylene (HDPE), polypropylene, ethylene vinyl acetate, polylactides, starch-based polymers, polyacrylates, thermoplastic polyurethanes, and combinations thereof.
A roll stand having at least one shifting device provided with a shifting gear mechanism for axially shifting rolls, in particular work rolls or intermediate rolls, the rolls being connected to a driving gear mechanism via a driving shaft, characterized in that the shifting device has a sleeve element which can be shifted on a driven shaft of the driving, gear mechanism by means of the shifting gear mechanism, the sleeve element being connected both to the driving shaft and to a driven gear wheel which can be axially shifted on the driven shaft of the driving gear mechanism.
A capacitor comprising: a porous metal base material; a dielectric layer formed on the porous metal base material; an upper electrode formed on the dielectric layer; a first terminal electrode electrically connected to the porous metal base material; and a second terminal electrode electrically connected to the upper electrode, wherein the porous metal base material comprises a high-porosity part and low-porosity part, and the low-porosity part is present at a pair of opposed side surface parts of the porous metal base material, characterised in that an additional low-porosity part is further formed between the low-porosity part present at the pair of opposed side surface parts of the porous metal base material; said additional low-porosity part formed so as to connect said pair of opposed side-surface low-porosity part and the additional low-porosity part completely covered with the high-porosity part of the porous metal base material so as to be buried in said high-porosity part. a porous metal base material; a dielectric layer formed on the porous metal base material; an upper electrode formed on the dielectric layer; a first terminal electrode electrically connected to the porous metal base material; and a second terminal electrode electrically connected to the upper electrode, wherein the porous metal base material comprises a high-porosity part and low-porosity part, and the low-porosity part is present at a pair of opposed side surface parts of the porous metal base material, characterised in that an additional low-porosity part is further formed between the low-porosity part present at the pair of opposed side surface parts of the porous metal base material;
A lubrication system for a gas turbine engine comprising: a tank configured to store a volume of lubricant; a circulation pump for generating a flow of lubricant from the tank to a component of the gas turbine engine; a flowrate control valve in fluid communication with the flow of lubricant generated by the circulation pump and defining a flow inlet and a flow outlet, the flowrate control valve also defining a variable throughput between the flow inlet and the flow outlet for controlling a flowrate of lubricant to the component of the gas turbine engine; and a heat exchanger positioned in thermal communication with the flow of lubricant generated by the circulation pump for controlling a temperature of the lubricant prior to the lubricant reaching the component; characterized in that: the heat exchanger is positioned at a location downstream of the flowrate control valve; wherein the flow of lubricant generated by the circulation pump is split downstream of the circulation pump between a first flow path and a second flow path, wherein the second flow path is configured to provide the flow of lubricant to the component of the gas turbine engine, and wherein the flowrate control valve is in fluid communication with the second flow path, wherein the circulation pump is further configured to generate a flow of lubricant from the tank through the first flow path to one or more other components of the gas turbine engine, the one or more other components comprising one or more of a compressor section of the gas turbine engine and a turbine section of the gas turbine engine. a tank configured to store a volume of lubricant; a circulation pump for generating a flow of lubricant from the tank to a component of the gas turbine engine; a flowrate control valve in fluid communication with the flow of lubricant generated by the circulation pump and defining a flow inlet and a flow outlet, the flowrate control valve also defining a variable throughput between the flow inlet and the flow outlet for controlling a flowrate of lubricant to the component of the gas turbine engine; and a heat exchanger positioned in thermal communication with the flow of lubricant generated by the circulation pump for controlling a temperature of the lubricant prior to the lubricant reaching the component; the heat exchanger is positioned at a location downstream of the flowrate control valve; wherein the flow of lubricant generated by the circulation pump is split downstream of the circulation pump between a first flow path and a second flow path, wherein the second flow path is configured to provide the flow of lubricant to the component of the gas turbine engine, and wherein the flowrate control valve is in fluid communication with the second flow path, wherein the circulation pump is further configured to generate a flow of lubricant from the tank through the first flow path to one or more other components of the gas turbine engine, the one or more other components comprising one or more of a compressor section of the gas turbine engine and a turbine section of the gas turbine engine.
A track system of the kind which includes a track having a combination of straight and curved portions or curved portions with different radii of curvature and one or more carriages having bearing wheels engaged with the track such that the carriages can travel along the track, in which the carriages have a single bearing wheel engaged with one side of the track (4, 5) and a pair of bearing wheels (13, 14) engaged with an opposite side of the track, all of the bearing wheels being mounted in fixed positions against movement relative to the carriage, characterised in that the width of the track between the said opposite sides (4, 5) varies such that the curvature of both sides changes smoothly without abrupt changes in radius such as to simultaneously maintain a close tolerance between all three of the bearing wheels and the respective sides of the track (4, 5) during movement along the track.
A method for preparing lixisenatide, comprising: step 1: synthesizing Fmoc-Lys-resin by solid-phase synthesis; step 2: coupling an amino acid and a dipeptide to the Fmoc-Lys-resin according to the peptide sequence of lixisenatide to obtain lixisenatide peptide resin; wherein the dipeptide is selected from the group consisting of -Gly-Thr, -Phe-Thr, -Thr-Ser, -Leu-Ser, -Ser-Ser and -Pro-Ser; and step 3: cleaving the lixisenatide peptide resin to obtain lixisenatide, wherein coupling -Gly-Thr is performed by using Fmoc-Gly-Thr(PSI ME, ME Pro)-OH; coupling -Phe-Thr is performed by using Fmoc-Phe-Thr(PSI ME, ME Pro)-OH; coupling -Thr-Ser is performed by using Fmoc-Thr(tBu)-Ser(PSI ME, ME Pro)-OH; coupling -Leu-Ser is performed by using Fmoc-Leu-Ser(PSI ME, ME Pro)-OH; coupling -Ser-Ser is performed by using Fmoc-Ser(tBu)-Ser(PSI ME, ME Pro)-OH; and coupling -Pro-Ser is performed by using Fmoc-Pro-Ser(PSI ME, ME Pro)-OH. step 1: synthesizing Fmoc-Lys-resin by solid-phase synthesis; step 2: coupling an amino acid and a dipeptide to the Fmoc-Lys-resin according to the peptide sequence of lixisenatide to obtain lixisenatide peptide resin; wherein the dipeptide is selected from the group consisting of -Gly-Thr, -Phe-Thr, -Thr-Ser, -Leu-Ser, -Ser-Ser and -Pro-Ser; and step 3: cleaving the lixisenatide peptide resin to obtain lixisenatide, coupling -Gly-Thr is performed by using Fmoc-Gly-Thr(PSI ME, ME Pro)-OH; coupling -Phe-Thr is performed by using Fmoc-Phe-Thr(PSI ME, ME Pro)-OH; coupling -Thr-Ser is performed by using Fmoc-Thr(tBu)-Ser(PSI ME, ME Pro)-OH; coupling -Leu-Ser is performed by using Fmoc-Leu-Ser(PSI ME, ME Pro)-OH; coupling -Ser-Ser is performed by using Fmoc-Ser(tBu)-Ser(PSI ME, ME Pro)-OH; and coupling -Pro-Ser is performed by using Fmoc-Pro-Ser(PSI ME, ME Pro)-OH.
A compound of formula I where R 2 is -H, -F, -Cl, -Br, -I, -R, -OR, -SR, -NHR, -OCOR, -SCOR, or -NHCOR; and R 2 ' is -F, -Cl, -Br, -I, -R, -OR, -SR, -NHR, -OCOR, -SCOR, or NHCOR; R 6 and R 6' are, independently, -H, -R, or -COR; Q 1, Q 2, Q 1 ', and Q 2 ' are independently N or CH; Q 3, Q 4, Q 3 ', and Q 4 ' are independently O or CH 2; X and X' are, independently, O or S; Y is O or CZZ', where Z and Z' are, independently, -H, -F, -Cl, -Br, -R, -OR, -SR, -NHR, -OCOR, -SCOR or -NHCOR; R is straight or branched chain alkyl (C1-C6), cyclic alkyl (C3-C6), straight or branched chain alkenyl (C2-C6), cyclic alkenyl (C4-C6), straight or branched chain alkynyl (C2-C6), cyclic alkynyl (C8-C10), aryl (C6-C12), heteroaryl (C2-C9), or heterocyclyl (C2-C9), wherein the alkyl, cyclic alkyl, alkenyl, cyclic alkenyl, alkynyl, cyclic alkynyl, aryl, heteroaryl, and heterocyclyl groups are substituted or unsubstituted; and each M is independently H or a pharmaceutically acceptable cation, wherein when two or more M are pharmaceutically acceptable cations, they may be combined to form a single pharmaceutically acceptable cation with the appropriate charge; or a pharmaceutically acceptable salt thereof or stereoisomer thereof. where R 2 is -H, -F, -Cl, -Br, -I, -R, -OR, -SR, -NHR, -OCOR, -SCOR, or -NHCOR; and R 2 ' is -F, -Cl, -Br, -I, -R, -OR, -SR, -NHR, -OCOR, -SCOR, or NHCOR; R 6 and R 6' are, independently, -H, -R, or -COR; Q 1, Q 2, Q 1 ', and Q 2 ' are independently N or CH; Q 3, Q 4, Q 3 ', and Q 4 ' are independently O or CH 2; X and X' are, independently, O or S; Y is O or CZZ', where Z and Z' are, independently, -H, -F, -Cl, -Br, -R, -OR, -SR, -NHR, -OCOR, -SCOR or -NHCOR; R is straight or branched chain alkyl (C1-C6), cyclic alkyl (C3-C6), straight or branched chain alkenyl (C2-C6), cyclic alkenyl (C4-C6), straight or branched chain alkynyl (C2-C6), cyclic alkynyl (C8-C10), aryl (C6-C12), heteroaryl (C2-C9), or heterocyclyl (C2-C9), wherein the alkyl, cyclic alkyl, alkenyl, cyclic alkenyl, alkynyl, cyclic alkynyl, aryl, heteroaryl, and heterocyclyl groups are substituted or unsubstituted; and each M is independently H or a pharmaceutically acceptable cation, wherein when two or more M are pharmaceutically acceptable cations, they may be combined to form a single pharmaceutically acceptable cation with the appropriate charge; or a pharmaceutically acceptable salt thereof or stereoisomer thereof.
A vehicle comprising: a sensor (102, 104, 106) that detects an environment of the vehicle based on a comparison between electromagnetic, EM, radiation transmitted by the sensor and a reflection of the EM radiation from one or more objects in the environment of the vehicle; and a controller that (i) receives data from an external computing device indicative of at least one other vehicle in the environment of the vehicle, the at least one other vehicle in the environment of the vehicle including at least one sensor that transmits EM radiation and detects reflections of the EM radiation of the at least one sensor, wherein the data comprises a location and a sensor configuration of the at least one other vehicle, (ii) determines a likelihood of interference between the at least one sensor of the at least one other vehicle and the sensor of the vehicle based on the data, and (iii) responsively initiates an adjustment of the sensor to reduce the likelihood of interference between the sensor of the vehicle and the at least one sensor of the at least one other vehicle, wherein initiating an adjustment of the sensor is based on the likelihood being greater than a threshold likelihood. a sensor (102, 104, 106) that detects an environment of the vehicle based on a comparison between electromagnetic, EM, radiation transmitted by the sensor and a reflection of the EM radiation from one or more objects in the environment of the vehicle; and a controller that (i) receives data from an external computing device indicative of at least one other vehicle in the environment of the vehicle, the at least one other vehicle in the environment of the vehicle including at least one sensor that transmits EM radiation and detects reflections of the EM radiation of the at least one sensor, wherein the data comprises a location and a sensor configuration of the at least one other vehicle, (ii) determines a likelihood of interference between the at least one sensor of the at least one other vehicle and the sensor of the vehicle based on the data, and (iii) responsively initiates an adjustment of the sensor to reduce the likelihood of interference between the sensor of the vehicle and the at least one sensor of the at least one other vehicle, wherein initiating an adjustment of the sensor is based on the likelihood being greater than a threshold likelihood.
A pharmaceutical composition, comprising: aprepitant or a pharmaceutically acceptable salt thereof; at least one hydrocarbon derivative selected from among a fatty acid of 14 to 18 carbon atoms, and a fatty alcohol of 14 to 18 carbon atoms; and at least one surfactant selected from among a polyoxyethylene-type nonionic surfactant, a sucrose fatty acid ester, and Macrogol 15 hydroxystearate. aprepitant or a pharmaceutically acceptable salt thereof; at least one hydrocarbon derivative selected from among a fatty acid of 14 to 18 carbon atoms, and a fatty alcohol of 14 to 18 carbon atoms; and at least one surfactant selected from among a polyoxyethylene-type nonionic surfactant, a sucrose fatty acid ester, and Macrogol 15 hydroxystearate.
A process for forming a master blend, comprising the steps of: a) selecting an amount of a thermoplastic polymer; and b) adding an amount of at least one odorant compound to said thermoplastic polymer amount in a odorant:polymer weight ratio of between 1:1.5 and 1:3.5, and c) blending said thermoplastic polymer and said odorant together in a blender to form said master blend. a) selecting an amount of a thermoplastic polymer; and b) adding an amount of at least one odorant compound to said thermoplastic polymer amount in a odorant:polymer weight ratio of between 1:1.5 and 1:3.5, and c) blending said thermoplastic polymer and said odorant together in a blender to form said master blend.
A method of arranging the lubrication of a controllable pitch propeller arrangement of a marine vessel, the controllable pitch propeller arrangement comprising a hub, a drive shaft, a drive means, an oil distribution box, a hydraulic powerpack and an oil tank; the hub having a number of propeller blades and mechanical and hydraulic means for controlling the pitch of the propeller blades; the mechanical control means being arranged in a lubricant chamber; the hydraulic control means comprising an astern oil chamber and an ahead oil chamber; the hub being attached to a first end of a drive shaft; the second end of the drive shaft being coupled to the drive means; the drive shaft having three oil paths (70, 74, 78), an astern flow path for connecting the astern oil chamber to the hydraulic powerpack via the oil distribution box and an oil pipe, an ahead flow path for connecting the ahead oil chamber to the hydraulic powerpack via the oil distribution box and an oil pipe and a lubricant path for connecting the lubricant chamber to the oil tank via the oil distribution box and an oil pipe; and the lubricant chamber being connected by means of at least one first lubricant passage to the lubricant path, characterized by connecting the astern oil chamber or the astern flow path leading thereto by means of at least one oil circulation channel to the lubricant chamber, and by arranging, at least when the propeller blades are locked in a desired position, a pressure difference between the astern oil chamber and the lubricant chamber for circulating lubricant from the astern oil chamber via the lubricant chamber to the oil tank.