mhurhangee/ep-ind-claims huggingface dataset:
A solid catalyst component comprising the product of a process comprising (a) reacting at a temperature ranging from 0 to 150°C a Mg based compound of formula (MgCl m X 2-m)·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently R, OR, -OCOR or -OC -OR group, in which R is a C 1 -C 20 hydrocarbon group, and LB is a Lewis base, with a Ti compound, having at least a Ti-Cl bond, in an amount such that the Ti/Mg molar ratio is greater than 0.1 optionally in the presence of an electron donor compound thereby obtaining a catalyst precursor; (b) reacting the product coming from the preceding step with an organoaluminum compound in such an amount to have a Al/Ti ratio of 0.01 to 50 optionally in the presence of an amount of olefin monomer able to produce from 0.1 to 50gr of polymer per gram of catalyst precursor; optionally followed by one or more washing steps; (c) treating the catalyst precursor coming from step (b) with a mono or polychlorinated R 1 -Cl compound in a R 1 Cl/Al ratio from 0.1 to 5 where R 1 is hydrogen or a C 1 -C 20 hydrocarbon group and (d) isolating and recovering the solid catalyst component. (a) reacting at a temperature ranging from 0 to 150°C a Mg based compound of formula (MgCl m X 2-m)·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently R, OR, -OCOR or -OC -OR group, in which R is a C 1 -C 20 hydrocarbon group, and LB is a Lewis base, with a Ti compound, having at least a Ti-Cl bond, in an amount such that the Ti/Mg molar ratio is greater than 0.1 optionally in the presence of an electron donor compound thereby obtaining a catalyst precursor; (b) reacting the product coming from the preceding step with an organoaluminum compound in such an amount to have a Al/Ti ratio of 0.01 to 50 optionally in the presence of an amount of olefin monomer able to produce from 0.1 to 50gr of polymer per gram of catalyst precursor; optionally followed by one or more washing steps; (c) treating the catalyst precursor coming from step (b) with a mono or polychlorinated R 1 -Cl compound in a R 1 Cl/Al ratio from 0.1 to 5 where R 1 is hydrogen or a C 1 -C 20 hydrocarbon group and (d) isolating and recovering the solid catalyst component.
Controllable vibration damper, in particular for a vehicle chassis, comprising a cylinder tube which comprises a hydraulic fluid which is sealed therein, a piston which can be moved axially within the cylinder tube along a cylinder tube axis and which divides the cylinder tube into two working spaces (11, 21), a piston rod which is oriented parallel to the cylinder tube axis and is connected at one end to the piston, a plurality of fluid leadthroughs (12, 22) from one working space (11, 21) into the other working space (21, 11) being provided in the piston, a first valve assembly for damping the piston movement in a first actuating direction being arranged at a first fluid leadthrough, and a second valve assembly for damping the piston movement in a second actuating direction being arranged at a second fluid leadthrough, each valve assembly (13, 23) comprising at least one valve disc (14, 24) which, in a closed valve position, is seated on a valve seat (15, 25) and thus covers the associated fluid leadthrough (12, 22), and which, in an open valve position, is spaced apart at least partially from the valve seat (15, 25), each valve assembly (13, 23) comprising a pilot control chamber (16, 26), it being possible for the valve disc (14, 24) to be prestressed into the closed valve position by way of pressurization of the pilot control chamber (16, 26), it being possible for the pressure in the respective pilot control chambers (16, 26) to be set, characterized in that at least one of the pilot control chambers (16, 26) is delimited by way of a bottom, a cylindrical side wall which is stationary relative to the bottom and is arranged coaxially with respect to the cylinder tube axis, and a dimensionally stable cover which is held radially within the cylindrical side wall and can be moved parallel to the cylinder tube axis.
A food or beverage container coating composition comprising a furan-containing polyester having a Tg of at least 0°C and less than 150°C determined by DSC in accordance with the description, and a liquid carrier, wherein the furan-containing polyester comprises at least 5 wt-% and up to 40 wt-% furan groups in the backbone of the polyester, and wherein the furan-containing polyester comprises less than 10 wt-% terephthalic acid, preferably no TPA, wherein these weight percentages correspond to the total weight of furan-containing monomers or TPA monomers used to form the polyester relative to the total weight of the reactants used to form the polyester. wherein the furan-containing polyester comprises at least 5 wt-% and up to 40 wt-% furan groups in the backbone of the polyester, and wherein the furan-containing polyester comprises less than 10 wt-% terephthalic acid, preferably no TPA, wherein these weight percentages correspond to the total weight of furan-containing monomers or TPA monomers used to form the polyester relative to the total weight of the reactants used to form the polyester.
A fuel injection control device for a diesel engine, the fuel injection control device comprising: a fuel injection valve that injects fuel into a combustion chamber; and a fuel injection control unit that controls operation of the fuel injection valve, wherein the fuel injection control unit includes a split injection control unit that causes the fuel injection valve to execute pre-injection for injecting fuel at a predetermined first timing, and post-injection for injecting fuel at a second timing later than the pre-injection, a setting unit that sets a fuel injection amount or a fuel injection timing in the pre-injection or the post-injection so that a value difference between a value of a first peak (EAp), which is a peak of an increase rate of combustion pressure in the combustion chamber accompanying the pre-injection, and a value of a second peak (EBp), which is a peak of an increase rate of combustion pressure in the combustion chamber accompanying the post-injection, falls within a predetermined range, and a calculation unit that calculates the first and second peaks (EAp, EBp) in an increase rate of the combustion pressure by excluding motoring pressure (Mp), which is an in-cylinder pressure at a time of non-combustion of the combustion chamber. a fuel injection valve that injects fuel into a combustion chamber; and a fuel injection control unit that controls operation of the fuel injection valve, wherein the fuel injection control unit includes a split injection control unit that causes the fuel injection valve to execute pre-injection for injecting fuel at a predetermined first timing, and post-injection for injecting fuel at a second timing later than the pre-injection, a setting unit that sets a fuel injection amount or a fuel injection timing in the pre-injection or the post-injection so that a value difference between a value of a first peak (EAp), which is a peak of an increase rate of combustion pressure in the combustion chamber accompanying the pre-injection, and a value of a second peak (EBp), which is a peak of an increase rate of combustion pressure in the combustion chamber accompanying the post-injection, falls within a predetermined range, and a calculation unit that calculates the first and second peaks (EAp, EBp) in an increase rate of the combustion pressure by excluding motoring pressure (Mp), which is an in-cylinder pressure at a time of non-combustion of the combustion chamber.
Peripheral illumination device for a vehicle component, having at least one light guide and an enclosure which guides the at least one light guide, characterised in that the at least one light guide is securely supported by means of a fixed bearing in the enclosure at a predetermined location in such a manner that the at least one light guide is movably supported relative to the enclosure from the fixed bearing in the longitudinal direction of the two ends thereof, wherein the enclosure of the light guide has a lower thermal expansion coefficient than that of the at least one light guide, wherein the illumination device comprises a plurality of light guides which are arranged in a row inside the enclosure, wherein respective end portions of the light guides overlap each other.
A cargo transport system based on an unmanned aerial vehicle, comprising an UAV and a vehicle that can send and receive the UAV, so that cargos can be transported between the vehicle and another terminal by the UAV; wherein the UAV is provided with a navigation system, and the navigation system can guide the UAV to fly between the vehicle and the another terminal according to first navigation position information that indicates the position of the vehicle and/or the another terminal; and wherein the vehicle comprises: an UAV accommodating device for accommodating the UAV; whereby the vehicle is further characterized by an UAV receiving controller configured, when the UAV flies from the another terminal into a preset range around the vehicle by means of the navigation system, to guide the UAV to the vehicle based on wireless signal transmitted directly between the vehicle and the UAV; and wherein the UAV receiving controller comprises: an identity verification unit for providing identity verification information to the UAV in response to an identity verification request broadcasted by the UAV when flying into the preset range, so that the UAV determines according to the identity verification information whether the vehicle is a target vehicle where the UAV is to land; and a short distance guide unit for providing short distance guide information for the UAV, so that the UAV lands according to the short distance guide information when the UAV determines that the vehicle is the target vehicle. an UAV accommodating device for accommodating the UAV; whereby the vehicle is further characterized by an UAV receiving controller configured, when the UAV flies from the another terminal into a preset range around the vehicle by means of the navigation system, to guide the UAV to the vehicle based on wireless signal transmitted directly between the vehicle and the UAV; and wherein the UAV receiving controller comprises: an identity verification unit for providing identity verification information to the UAV in response to an identity verification request broadcasted by the UAV when flying into the preset range, so that the UAV determines according to the identity verification information whether the vehicle is a target vehicle where the UAV is to land; and a short distance guide unit for providing short distance guide information for the UAV, so that the UAV lands according to the short distance guide information when the UAV determines that the vehicle is the target vehicle. an identity verification unit for providing identity verification information to the UAV in response to an identity verification request broadcasted by the UAV when flying into the preset range, so that the UAV determines according to the identity verification information whether the vehicle is a target vehicle where the UAV is to land; and a short distance guide unit for providing short distance guide information for the UAV, so that the UAV lands according to the short distance guide information when the UAV determines that the vehicle is the target vehicle.
A modular microplasma microchannel reactor device, comprising: a microchannel array of a plurality of microchannel plasma devices (38, 62) including electrodes (16, 18, 68, 70) arranged with respect to the plurality of microchannels (128, 130, 170, 172, 188, 208) to stimulate plasma generation in the plurality of microchannels upon application of suitable voltage wherein the electrodes are isolated from the microchannels by a dielectric; a gas inlet (41, 46, 132, 134) to the microchannels; and a gas product outlet (41, 48) from the microchannels; wherein a portion of the microchannels between the gas inlet and gas product outlet are covered by a cover (52, 54), and the cover and device are structured to be modular to join with additional reactor devices; further comprising seals (50, 74, 126, 242) that seal the gas inlet and gas product outlet to provide fluid communication between the gas inlet and/or gas product outlet and another microchannel reactor device. a microchannel array of a plurality of microchannel plasma devices (38, 62) including electrodes (16, 18, 68, 70) arranged with respect to the plurality of microchannels (128, 130, 170, 172, 188, 208) to stimulate plasma generation in the plurality of microchannels upon application of suitable voltage wherein the electrodes are isolated from the microchannels by a dielectric; a gas inlet (41, 46, 132, 134) to the microchannels; and a gas product outlet (41, 48) from the microchannels; wherein a portion of the microchannels between the gas inlet and gas product outlet are covered by a cover (52, 54), and the cover and device are structured to be modular to join with additional reactor devices; further comprising seals (50, 74, 126, 242) that seal the gas inlet and gas product outlet to provide fluid communication between the gas inlet and/or gas product outlet and another microchannel reactor device.
An intradermal active ingredient delivery system comprising an extraction device for extracting interstitial liquid, a conveying device fluidically connected to the extraction device for conveying liquid, an active ingredient reservoir fluidically connected to the conveying device, and a delivery device fluidically connected to the conveying device for intradermal delivery of the interstitial liquid comprising an active ingredient. an extraction device for extracting interstitial liquid, a conveying device fluidically connected to the extraction device for conveying liquid, an active ingredient reservoir fluidically connected to the conveying device, and a delivery device fluidically connected to the conveying device for intradermal delivery of the interstitial liquid comprising an active ingredient.
A pharmaceutical injection device, comprising: a main body case having at a first end an injection needle mounting portion to which an injection needle is mounted; a pharmaceutical syringe mounting portion that is provided inside the main body case and to which a pharmaceutical syringe is mounted; a piston that is provided movably with respect to the pharmaceutical syringe mounted to the pharmaceutical syringe mounting portion; a drive mechanism (7, 8) configured to drive the piston; an opening that is disposed in the first end side of the main body case and exposes the pharmaceutical syringe mounting portion to the outside, and a cover that covers the opening disposed in the first end side in an openable and closeable state so as to expose the injection needle mounting portion to the outside, while the cover is still attached to the first end side of the main body case; wherein a surface of the cover is a face that comes into contact with the skin at an outer peripheral position of the injection needle mounting portion in a state of opening cover. a main body case having at a first end an injection needle mounting portion to which an injection needle is mounted; a pharmaceutical syringe mounting portion that is provided inside the main body case and to which a pharmaceutical syringe is mounted; a piston that is provided movably with respect to the pharmaceutical syringe mounted to the pharmaceutical syringe mounting portion; a drive mechanism (7, 8) configured to drive the piston; an opening that is disposed in the first end side of the main body case and exposes the pharmaceutical syringe mounting portion to the outside, and a cover that covers the opening disposed in the first end side in an openable and closeable state so as to expose the injection needle mounting portion to the outside, while the cover is still attached to the first end side of the main body case; wherein a surface of the cover is a face that comes into contact with the skin at an outer peripheral position of the injection needle mounting portion in a state of opening cover.
A method for making a supported polymerization catalyst, comprising: forming a catalyst compound comprising bis(n-propylcyclopentadienyl) hafnium (CH 3) 2, bis(n-propylcyclopentadienyl) hafnium F 2, bis(n-propylcyclopentadienyl) hafnium Cl 2, or any combinations thereof; mixing the catalyst compound with an activator to form a catalyst complex; combining the catalyst complex with a support to form a supported catalyst wherein the support is one inorganic oxide and the inorganic oxide is silica; and drying the supported catalyst to bind the catalyst complex to the silica support, wherein the supported polymerization catalyst has a particle size distribution wherein 10 % of the particles have a size less than or equal to 20 micrometers, 50 % of the particles have a size less than or equal to 42 micrometers, and 90 % of the particles have a size less than or equal to 75.4 micrometers, and wherein the supported catalyst produces polyolefin polymer in a gas phase fluidized bed reactor, wherein the polyolefin polymer has an average particle size of greater than 0.660 mm, has an average productivity of greater than 7000 g resin/g catalyst, and forms a distribution of resin particles with sizes where 20 % of resin particles have a size larger than 1 mm and has an average ratio of a fluidized bulk density to a settled bulk density (FBD/SBD) of at least 4 % higher than an average of FBD/SBD for resin particles formed from the catalyst compound supported on other silica supports, when polymerizations form a same polymer grade. mixing the catalyst compound with an activator to form a catalyst complex; combining the catalyst complex with a support to form a supported catalyst wherein the support is one inorganic oxide and the inorganic oxide is silica; and drying the supported catalyst to bind the catalyst complex to the silica support, wherein the supported polymerization catalyst has a particle size distribution wherein 10 % of the particles have a size less than or equal to 20 micrometers, 50 % of the particles have a size less than or equal to 42 micrometers, and 90 % of the particles have a size less than or equal to 75.4 micrometers, and wherein the supported catalyst produces polyolefin polymer in a gas phase fluidized bed reactor, wherein the polyolefin polymer has an average particle size of greater than 0.660 mm, has an average productivity of greater than 7000 g resin/g catalyst, and forms a distribution of resin particles with sizes where 20 % of resin particles have a size larger than 1 mm and has an average ratio of a fluidized bulk density to a settled bulk density (FBD/SBD) of at least 4 % higher than an average of FBD/SBD for resin particles formed from the catalyst compound supported on other silica supports, when polymerizations form a same polymer grade.
A flux composition for a cored welding electrode wire, the flux composition comprising, in weight percent based on the total weight of the wire: 9.54 BaLiF 3; 4.53 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.42 KLiF 2; 2.04 aluminum; 1.77 magnesium; 1.00 manganese; 0.87 nickel; 0.21 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; 0.36 iron; and the balance made up of steel strip; OR 9.13 BaLiF 3; 4.53 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.83 KLiF 2; 2.10 aluminum; 1.77 magnesium; 1.01 manganese; 0.98 nickel; 0.10 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; 0.03 iron; and the balance made up of steel strip; OR 9.13 BaLiF 3; 4.51 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.42 KLiF 2; 2.04 aluminum; 1.77 magnesium; 0.96 manganese; 0.87 nickel; 0.44 zirconium dioxide; 0.07 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; and 0.53 iron; and the balance made up of steel strip. 9.54 BaLiF 3; 4.53 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.42 KLiF 2; 2.04 aluminum; 1.77 magnesium; 1.00 manganese; 0.87 nickel; 0.21 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; 0.36 iron; and the balance made up of steel strip; 9.13 BaLiF 3; 4.53 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.83 KLiF 2; 2.10 aluminum; 1.77 magnesium; 1.01 manganese; 0.98 nickel; 0.10 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; 0.03 iron; and the balance made up of steel strip; 9.13 BaLiF 3; 4.51 Li 2 O-CaO-SiO 2 -Fe 3 O 4; 0.42 KLiF 2; 2.04 aluminum; 1.77 magnesium; 0.96 manganese; 0.87 nickel; 0.44 zirconium dioxide; 0.07 Ce 2 O 3 -La 2 O 3 -Nd 2 O 3 -Pr 2 O 3; and 0.53 iron; and the balance made up of steel strip.
A method for manufacturing a fluorine-containing imide compound shown in the following formula, which involves a reaction of a fluorine-containing sulfonic acid shown in the following formula and a fluorine-containing sulfonamide shown in the following formula in the presence of thionyl chloride. (Rf 1 SO 2)(Rf 2 SO 2)NH Rf 1 SO 3 H Rf 2 SO 2 NH 2 Wherein, in said formulas -, Rf 1 and Rf 2 are fluorine, or straight-chain or branched perfluoroalkyl groups with a carbon number of 1-4.
A dialysate generating device that generates a dialysate used in a blood purification device, wherein the dialysate generating device comprises: a first line configured to cause a first fluid and a second fluid to flow in an upward direction and to mix the first fluid and the second fluid using a mixture promoting device; a second line which is connected to a top end of the first line and is configured to cause a first mixture of the first fluid and the second fluid to flow in a downward direction; and a gas discharge section which is provided at a connection between the first line and the second line and which is configured to discharge gas collected at the connection, a water supply source configured to supply water as the first fluid, and a first undiluted solution reservoir configured to supply a first undiluted solution as the second fluid, characterized in that a sensor configured to measure a concentration of the first mixture is provided in the second line. a first line configured to cause a first fluid and a second fluid to flow in an upward direction and to mix the first fluid and the second fluid using a mixture promoting device; a second line which is connected to a top end of the first line and is configured to cause a first mixture of the first fluid and the second fluid to flow in a downward direction; and a gas discharge section which is provided at a connection between the first line and the second line and which is configured to discharge gas collected at the connection, a water supply source configured to supply water as the first fluid, and a first undiluted solution reservoir configured to supply a first undiluted solution as the second fluid,