mhurhangee/ep-ind-claims huggingface dataset:
A method for using a software defined radio, SDR,-enabled wireless device, the device having system parameters, the method comprising: a) initiating a request to allow simultaneous communication of a first wireless protocol and a second wireless protocol; b) considering system requirements for the simultaneous communication; c) comparing the system requirements for each of the first wireless protocol and the second wireless protocol to the system parameters; d) splitting a bitstream of the first wireless protocol into parallel bitstreams, each of a first bandwidth, and splitting a bitstream of the second wireless protocol into parallel bitstreams, each of a second bandwidth; and e) enabling simultaneous communication of the first wireless protocol and the second wireless protocol when the system parameters are within the system requirements; wherein enabling simultaneous communication of the first wireless and the second wireless protocol comprises enabling simultaneous communication by matching to a smaller bandwidth of the first and second bandwidths, and wherein matching to a smaller bandwidth of the first and second bandwidths comprises dividing sub-channels of one of the first and second bandwidths into a similarly sized bandwidth of the other of the first and second bandwidths. a) initiating a request to allow simultaneous communication of a first wireless protocol and a second wireless protocol; b) considering system requirements for the simultaneous communication; c) comparing the system requirements for each of the first wireless protocol and the second wireless protocol to the system parameters; d) splitting a bitstream of the first wireless protocol into parallel bitstreams, each of a first bandwidth, and splitting a bitstream of the second wireless protocol into parallel bitstreams, each of a second bandwidth; and e) enabling simultaneous communication of the first wireless protocol and the second wireless protocol when the system parameters are within the system requirements;
A hydrocarbon well comprising a tubing, an annulus and a downhole tool comprising a shear valve arranged between the annulus and the tubing for injecting an injection fluid into the tubing, which shear valve comprises an outer housing and an internal body which is movable in a longitudinal direction within the housing between a closed position and an open position when the valve is activated, in which closed position the internal body rests on a valve seat inside the housing such that a seal is formed, and in which open position the internal body is positioned away from the valve seat such that the injection fluid is allowed to flow into the tubing, characterised in that the valve comprises an obstruction device (23, 24) which, when active, is arranged to obstruct the internal body from moving within the housing, thus allowing pressurizing from an annulus side of the valve without the valve opening, which obstruction device (23, 24) is capable of being deactivated by pressurizing from a tubing side of the valve such that the obstruction device (23, 24), when in a deactivated state, is arranged to allow the internal body to move within the housing.
A method for producing a coated steel sheet, comprising the steps of: (a) reheating a steel slab containing 0.15-0.25 wt% of carbon, 0.5-1.5 wt% of silicon (Si), 1.5-2.5 wt% of manganese (Mn), 0.5-1.8 wt% of aluminum (Al), 0.3-2.0 wt% of chromium (Cr), more than 0 wt% but not more than 0.03 wt% of titanium (Ti), more than 0 wt% but not more than 0.03 wt% of niobium (Nb), not more than 0.015 wt% of phosphorus, not more than 0.002 wt% of sulfur, not more than 0.004 wt% of nitrogen and a balance of iron (Fe) and unavoidable impurities, wherein titanium (Ti) and niobium (Nb) are contained so as to satisfy the following equation: 0.01 ≤ Ti + Nb ≤ 0.02 wt % wherein Ti and Nb represent the contents (wt%) of titanium (Ti) and niobium (Nb), respectively, in the steel slab; (b) hot-rolling, cooling and coiling the steel slab, thereby producing a hot-rolled steel sheet; (c) pickling the hot-rolled steel sheet, followed by cold rolling; (d) annealing the cold-rolled steel sheet at a temperature between 820°C and 870°C, followed by cooling at a finish-cooling temperature between 350°C and 450°C; (e) tempering the cooled steel sheet at a temperature between 450°C and 550°C; and (f) hot-dip galvanizing the tempered steel sheet. (a) reheating a steel slab containing 0.15-0.25 wt% of carbon, 0.5-1.5 wt% of silicon (Si), 1.5-2.5 wt% of manganese (Mn), 0.5-1.8 wt% of aluminum (Al), 0.3-2.0 wt% of chromium (Cr), more than 0 wt% but not more than 0.03 wt% of titanium (Ti), more than 0 wt% but not more than 0.03 wt% of niobium (Nb), not more than 0.015 wt% of phosphorus, not more than 0.002 wt% of sulfur, not more than 0.004 wt% of nitrogen and a balance of iron (Fe) and unavoidable impurities, wherein titanium (Ti) and niobium (Nb) are contained so as to satisfy the following equation: 0.01 ≤ Ti + Nb ≤ 0.02 wt % wherein Ti and Nb represent the contents (wt%) of titanium (Ti) and niobium (Nb), respectively, in the steel slab; (b) hot-rolling, cooling and coiling the steel slab, thereby producing a hot-rolled steel sheet; (c) pickling the hot-rolled steel sheet, followed by cold rolling; (d) annealing the cold-rolled steel sheet at a temperature between 820°C and 870°C, followed by cooling at a finish-cooling temperature between 350°C and 450°C; (e) tempering the cooled steel sheet at a temperature between 450°C and 550°C; and (f) hot-dip galvanizing the tempered steel sheet.
An applique comprising: a protection layer comprising a conductor layer and a dielectric layer; a heating layer comprising a polymer and magnetic material; and an adhesive layer. a protection layer comprising a conductor layer and a dielectric layer; a heating layer comprising a polymer and magnetic material; and an adhesive layer.
An image processing device comprising: an object detection unit configured to detect an object in a first image; and a cutout region deciding unit configured to decide, a cutout region as a position at which the object is detected in the first image, and then to move the cutout region in a direction corresponding to a type of the object, wherein the type of the detection target object includes: a human and an automobile; and the relative direction varies in accordance with the type of the detection target object such that if the type of the detection target object is a human, the cutout region is moved in a first relative direction and if the type of the detection target object is a vehicle, the cutout region is moved in a second relative direction. an object detection unit configured to detect an object in a first image; and a cutout region deciding unit configured to decide, a cutout region as a position at which the object is detected in the first image, and then to move the cutout region in a direction corresponding to a type of the object, wherein the type of the detection target object includes: a human and an automobile; and the relative direction varies in accordance with the type of the detection target object such that if the type of the detection target object is a human, the cutout region is moved in a first relative direction and if the type of the detection target object is a vehicle, the cutout region is moved in a second relative direction.
A battery comprising: a cathode comprising an electrochemically active cathode material, the electrochemically active cathode material comprising a beta-delithiated layered nickel oxide; an anode comprising an electrochemically active anode material, the electrochemically active anode material selected from the group consisting of zinc, zinc oxide, zinc hydroxide, cadmium, iron, metal hydride, alloys thereof, and mixtures thereof; a separator between said cathode and said anode; and an electrolyte; wherein the beta-delithiated layered nickel oxide has an X-ray diffraction pattern, when irradiated by a Cu K-alpha X-ray, comprising a first peak from 14.9°2θ to 16.0°2θ; a second peak from 21.3°2θ to 22.7°2θ; a third peak from 37.1°2θ to 37.4°2θ; a fourth peak from 43.2°2θ to 44.0°2θ; a fifth peak from 59.6°2θ to 60.6°2θ; and a sixth peak from 65.4°2θ to 65.9°2θ. a cathode comprising an electrochemically active cathode material, the electrochemically active cathode material comprising a beta-delithiated layered nickel oxide; an anode comprising an electrochemically active anode material, the electrochemically active anode material selected from the group consisting of zinc, zinc oxide, zinc hydroxide, cadmium, iron, metal hydride, alloys thereof, and mixtures thereof; a separator between said cathode and said anode; and an electrolyte; wherein the beta-delithiated layered nickel oxide has an X-ray diffraction pattern, when irradiated by a Cu K-alpha X-ray, comprising a first peak from 14.9°2θ to 16.0°2θ; a second peak from 21.3°2θ to 22.7°2θ; a third peak from 37.1°2θ to 37.4°2θ; a fourth peak from 43.2°2θ to 44.0°2θ; a fifth peak from 59.6°2θ to 60.6°2θ; and a sixth peak from 65.4°2θ to 65.9°2θ.
A gas turbine engine assembly comprising: a turbine section having first and second turbines (46, 54) mounted for rotation about a common rotational axis within an engine static structure; first and second turbine shafts (40, 50) coaxial with one another and to which the first and second turbines (46, 54) are respectively operatively mounted, wherein the first and second turbine shafts (40, 50) are inner and outer shafts (40, 50), respectively, and the first and second turbines (46, 54) are low and high pressure turbines (46, 54), respectively; a fan connected to the first turbine shaft; an accessory drive gearbox; a first towershaft interconnecting the accessory drive gearbox and the first turbine shaft; and a multispeed transmission interconnecting the accessory drive gearbox and at least one accessory component (92; 96); wherein the first towershaft is geared to the first turbine shaft such that a rotational speed of the first towershaft and a first set of gears of the accessory drive gearbox varies linearly with a rotational speed of the first turbine shaft, with the multispeed transmission driven by the first set of gears, characterised in that the assembly further comprises an oil pump driven by the first set of gears at a fixed ratio relative to the rotational speed of the first towershaft, wherein the oil pump delivers fluid to a bearing system (38; 38') including a bearing that supports the first turbine shaft, and the first towershaft is rotatably coupled to the first turbine shaft. a turbine section having first and second turbines (46, 54) mounted for rotation about a common rotational axis within an engine static structure; first and second turbine shafts (40, 50) coaxial with one another and to which the first and second turbines (46, 54) are respectively operatively mounted, wherein the first and second turbine shafts (40, 50) are inner and outer shafts (40, 50), respectively, and the first and second turbines (46, 54) are low and high pressure turbines (46, 54), respectively; a fan connected to the first turbine shaft; an accessory drive gearbox; a first towershaft interconnecting the accessory drive gearbox and the first turbine shaft; and a multispeed transmission interconnecting the accessory drive gearbox and at least one accessory component (92; 96); wherein the first towershaft is geared to the first turbine shaft such that a rotational speed of the first towershaft and a first set of gears of the accessory drive gearbox varies linearly with a rotational speed of the first turbine shaft, with the multispeed transmission driven by the first set of gears, characterised in that the assembly further comprises an oil pump driven by the first set of gears at a fixed ratio relative to the rotational speed of the first towershaft, wherein the oil pump delivers fluid to a bearing system (38; 38') including a bearing that supports the first turbine shaft, and the first towershaft is rotatably coupled to the first turbine shaft.
Nut for mounting on a thin metal sheet, having a nut body with an inner thread, where a fastening contour for holding sheet material with a larger diameter in relation to the core diameter of the inner thread is arranged in front of the inner thread, and where the fastening contour has a pressing section which passes over into a run-out exit section with a diameter less than that of the pressing section, characterised in that the run-out section is cylindrical in shape and that the fastening contour has a centring section which tapers conically towards the inner thread and which adjoins the inner thread.
Lubricant composition for a 4-stroke or 2-stroke marine engine, comprising: a) at least one lubricant base oil, b) from 0.2 to 5% by mass of at least one linear copolymer of ethylene and of propylene relative to the total mass of the lubricant composition, c) from 0.3 to 8% by mass of at least one hydrogenated copolymer of styrene and of isoprene relative to the total mass of the lubricant composition, d) from 0.5 to 2% by mass of at least one glycerol ester relative to the total mass of the lubricant composition, the glycerol ester being a mixed glycerol ester with at least one fatty acid comprising 8 to 24 carbon atoms and at least one carboxylic acid comprising also a hydroxyphenyl function; e) from 4 to 15% by mass of at least one detergent relative to the total mass of the lubricant composition. a) at least one lubricant base oil, b) from 0.2 to 5% by mass of at least one linear copolymer of ethylene and of propylene relative to the total mass of the lubricant composition, c) from 0.3 to 8% by mass of at least one hydrogenated copolymer of styrene and of isoprene relative to the total mass of the lubricant composition, d) from 0.5 to 2% by mass of at least one glycerol ester relative to the total mass of the lubricant composition, the glycerol ester being a mixed glycerol ester with at least one fatty acid comprising 8 to 24 carbon atoms and at least one carboxylic acid comprising also a hydroxyphenyl function; e) from 4 to 15% by mass of at least one detergent relative to the total mass of the lubricant composition.
Vehicle test bench for a roadworthy complete vehicle having a steering system and a drivetrain, the vehicle test bench in intended use being designed for applying forces and/or torques to the roadworthy complete vehicle, a drivetrain module being present which consists of a second main body and a drive actuator that is rotatable relative thereto, the drive actuator being rotationally fixable by means of a second mechanical interface to a drive axle of the drivetrain, and the second main body being mechanically connected to a second mounting point located on the test bench, the drivetrain module being designed to generate by a rotation of the drive actuator relative to the second main body a torque which can be applied to the drive axle characterized in that a steering force module is present which consists of a first main body and a transverse force actuator that is displaceable relative thereto, the transverse force actuator being connectable by means of a first mechanical interface to an unhooked tie rod of the steering system, and the first main body being mechanically connectable to a first fixed mounting point located on the chassis of the complete vehicle, the steering force module being designed to generate by a displacement of the transverse force actuator relative to the first main body a transverse force independent of the torque, which transverse force can be applied to the steering system, and in that the second mounting point is a fixed mounting point.
A splint for supporting a foot and a shin of a patient by means of a first body element and a second body element, wherein the second body element is designed for receiving a patient's foot, wherein the body elements (3, 5) are formed from a flat, flexible material, wherein the first and second body elements (3, 5) have a substantially U-shaped cross-section in a plane perpendicular to a longitudinal axis (9, 11) of the body element (3, 5), wherein the longitudinal axes (9, 11) run in the middle of the U-shaped cross-section through the body elements (3, 5), wherein the body elements (3, 5) are connected to each other such that the longitudinal axis of the first body element and the longitudinal axis of the second body element enclose a splint angle, and wherein the body elements (3, 5) have a bearing surface facing the inside of the U-shaped cross-section and an outer surface opposite the bearing surface, characterized in that the body element which is designed for receiving a patient's foot has a flat additional element extending parallel thereto in order to increase the stability of the second body element, wherein the additional element abuts on the bearing surface of the foot. wherein the body elements (3, 5) are formed from a flat, flexible material, wherein the first and second body elements (3, 5) have a substantially U-shaped cross-section in a plane perpendicular to a longitudinal axis (9, 11) of the body element (3, 5), wherein the longitudinal axes (9, 11) run in the middle of the U-shaped cross-section through the body elements (3, 5), wherein the body elements (3, 5) are connected to each other such that the longitudinal axis of the first body element and the longitudinal axis of the second body element enclose a splint angle, and wherein the body elements (3, 5) have a bearing surface facing the inside of the U-shaped cross-section and an outer surface opposite the bearing surface,
A device for displaying bouquets of flowers or potted plants comprising a first sheet, a central part and a second sheet, said central part being inserted between the first sheet and the second sheet, said first sheet being superimposed on said second sheet, said device being characterized in that the central part comprises a central body and at least eight folding branches secured to the central body, and in that during the shaping of said device, the angle formed between the central body and the at least eight folding branches is smaller than 90° in the case of a flower bouquet display device, and equal to 90° or greater than 90° in the case of a potted plant display device.
A method for preparing a polymer-coated controlled porosity glass particle, said method comprising the steps of: (a) cooling CPG particles having pores with a mean average diameter of 75 to 4000 Angstroms (7.5 to 400 nm) to a temperature below about 10°C; (b) mixing the cooled CPG particles and a cold solution comprising a polymer forming coating compound and a first solvent, characterised in that the polymer forming coating compound is selected from the group consisting of a vinylbenzylchloride, acrylics, styrene, vinyl alcohol, polymers thereof, and mixtures thereof; (c) combining the mixture and a crosslinking agent in a solution comprising a second solvent, while maintaining the CPG particles at a temperature below about 10°C; (d) rapidly removing the first solvent, while maintaining the CPG mixture at a temperature below about 10 °C; (e) heating the CPG mixture to a temperature of about 38 to about 65°C under an inert gas, to permit formation of the coated CPG particles having a conformal polymeric coating cross-linked in the range of about 2 to 40% in which the polymer-coated CPG particles have an average pore size of at least about 90% of the average pore size of the uncoated CPG particles (a), based on dry pore size; (f) cooling the coated CPG particles; (g) washing the coated CPG particles and drying. (a) cooling CPG particles having pores with a mean average diameter of 75 to 4000 Angstroms (7.5 to 400 nm) to a temperature below about 10°C; (b) mixing the cooled CPG particles and a cold solution comprising a polymer forming coating compound and a first solvent, characterised in that the polymer forming coating compound is selected from the group consisting of a vinylbenzylchloride, acrylics, styrene, vinyl alcohol, polymers thereof, and mixtures thereof; (c) combining the mixture and a crosslinking agent in a solution comprising a second solvent, while maintaining the CPG particles at a temperature below about 10°C; (d) rapidly removing the first solvent, while maintaining the CPG mixture at a temperature below about 10 °C; (e) heating the CPG mixture to a temperature of about 38 to about 65°C under an inert gas, to permit formation of the coated CPG particles having a conformal polymeric coating cross-linked in the range of about 2 to 40% in which the polymer-coated CPG particles have an average pore size of at least about 90% of the average pore size of the uncoated CPG particles (a), based on dry pore size; (f) cooling the coated CPG particles; (g) washing the coated CPG particles and drying.
A method for producing a sugar liquid using a cellulose-containing biomass as a raw material, said method comprising the steps of: hydrolyzing a cellulose-containing biomass to produce an aqueous sugar solution; and filtering said aqueous sugar solution obtained in Step through an ultrafiltration membrane having a molecular weight cutoff of 600 to 2,000, to remove a fermentation inhibitor(s) into the permeate side and collect a sugar liquid from the feed side. hydrolyzing a cellulose-containing biomass to produce an aqueous sugar solution; and filtering said aqueous sugar solution obtained in Step through an ultrafiltration membrane having a molecular weight cutoff of 600 to 2,000, to remove a fermentation inhibitor(s) into the permeate side and collect a sugar liquid from the feed side.
A method for controlling the deposition of elementary semifinished products in a process for building tyres for vehicle wheels, comprising: - driving in rotation, around a rotation axis, a tyre being processed having a radially external surface comprising one or more elementary semifinished products; - sending a first electromagnetic radiation (R1 a) onto said radially external surface, the latter generating a corresponding first reflected radiation (R1b); - detecting, through a first detecting device, at least one first image representative of said first reflected radiation (R1 b); - controlling said first detecting device in such a manner that a first exposure time for detecting said at least one first image is equal at least to the time employed by said tyre being processed for carrying out a full revolution around said rotation axis; - carrying out a first comparison between said at least one first image and one or more reference data (Ref); - generating a first notification signal as a function of said first comparison. - driving in rotation, around a rotation axis, a tyre being processed having a radially external surface comprising one or more elementary semifinished products; - sending a first electromagnetic radiation (R1 a) onto said radially external surface, the latter generating a corresponding first reflected radiation (R1b); - detecting, through a first detecting device, at least one first image representative of said first reflected radiation (R1 b); - controlling said first detecting device in such a manner that a first exposure time for detecting said at least one first image is equal at least to the time employed by said tyre being processed for carrying out a full revolution around said rotation axis; - carrying out a first comparison between said at least one first image and one or more reference data (Ref); - generating a first notification signal as a function of said first comparison.