mhurhangee/patent-ind-claim-en huggingface dataset:
Electronic throttle control device for a two or three-wheeled motorcycle, a four-wheeled motorcycle, a snowmobile or a personal watercraft, the vehicle having a handlebar on which there is mounted a grip of said control device , under the action of a rider, the grip being suitable to rotate around a longitudinal axis (W) thereof starting from an end-stroke position to change the motion condition of the vehicle, said rotation being detected by detection means suitable to allow throttle control that is change the number of revolutions of an engine of the vehicle as a function of a rotation of the grip , the grip being associated with a body fixed to the handlebar and rotating with respect thereto, there being provided for a first spring with preestablished preload which allows the rotation of the grip on a predetermined arc of rotation corresponding to a range of possible number of rotations for the engine, wherein there is provided for a second spring operating on the grip at the start of the rotation thereof from the end-stroke around the longitudinal axis (W) in the same rotational direction, said second spring having a preload lower than that of the first spring and acting on the grip before the range of said first spring on the grip, such action of the second spring generating the perception - in the rider - of an initial clearance in the rotation of the grip and not causing any increase of the number of revolutions of the engine, said clearance corresponding to a clearance of a mechanical throttle control device, characterised in that first and second spring returning the grip to the same end-stroke position at the end of the change of the motion condition of the vehicle.
Rotating cosmetics case for receiving a cosmetics product, such as a stick of lipstick or of lip cream, comprising a metal jacket fitted and glued to a sleeve of synthetic material, while a clearance , as a means of retaining excess glue, is arranged in an upper portion above the junction of said sleeve of synthetic material and the metal jacket , characterised in that the clearance is arranged in the upper outside wall of the sleeve of synthetic material and/or in the upper inside wall of the metal jacket .
An echo suppression device comprising: a first linear echo suppression unit configured to estimate an amplitude component and a phase component of a linear echo signal included in an input signal (x mic (k)) acquired by a microphone , to suppress the linear echo signal from the input signal (x mic (k)); characterized in that , the echo suppression device further comprises :- a nonlinear echo estimation unit configured to estimate the nonlinear echo signal (X NN (ω)) included in the input signal (x mic (k)) from at least one of a call reception signal (x(k)) to be output to a speaker and the input signal (x mic (k)); a nonlinear echo suppression unit configured to suppress the nonlinear echo signal from the input signal (x mic (k)), by using the nonlinear echo signal (X NN (ω)) estimated by the nonlinear echo estimation unit ; and a second linear echo suppression unit , configured to receive the call reception signal (x(k)) in the frequency domain (X(ω)) and the output signal (Y NL-ES (ω)) from the nonlinear echo suppression unit and further configured to estimate an amplitude component of a residual linear echo signal not suppressed by the first linear echo suppression unit , to suppress the residual linear echo signal in the output signal (Y NL-ES (ω)). a nonlinear echo estimation unit configured to estimate the nonlinear echo signal (X NN (ω)) included in the input signal (x mic (k)) from at least one of a call reception signal (x(k)) to be output to a speaker and the input signal (x mic (k)); a nonlinear echo suppression unit configured to suppress the nonlinear echo signal from the input signal (x mic (k)), by using the nonlinear echo signal (X NN (ω)) estimated by the nonlinear echo estimation unit ; and a second linear echo suppression unit , configured to receive the call reception signal (x(k)) in the frequency domain (X(ω)) and the output signal (Y NL-ES (ω)) from the nonlinear echo suppression unit and further configured to estimate an amplitude component of a residual linear echo signal not suppressed by the first linear echo suppression unit , to suppress the residual linear echo signal in the output signal (Y NL-ES (ω)).
A stirring device for a machine for making liquid or semi-liquid food products, where the machine comprises a container for processing a liquid or semi-liquid product, the stirring device being, in use, mounted inside the container to stir the liquid or semi-liquid product that is inside the container ; the stirring device being characterized in that it comprises: - a central mounting element ; - an external mixing structure rotatably mounted inside the container and fixed to the central mounting element ; - at least one scraping element having an at least partly helical shape and being keyed to the central mounting element , the stirrer device being characterized in that the central mounting element comprises a shaft , at least part of whose cross section is prismatic and on which the at least one scraping element is fitted by prismatic coupling to the shaft and in that the scraping element comprises a tubular portion with a polygonal internal cross section, adapted to be fitted by prismatic coupling to the shaft , the scraping element comprising a helicoid stretch intended for scraping the inside surface of the container . the stirring device being characterized in that it comprises: - a central mounting element ; - an external mixing structure rotatably mounted inside the container and fixed to the central mounting element ; - at least one scraping element having an at least partly helical shape and being keyed to the central mounting element - a central mounting element ; - an external mixing structure rotatably mounted inside the container and fixed to the central mounting element ; - at least one scraping element having an at least partly helical shape and being keyed to the central mounting element , the stirrer device being characterized in that the central mounting element comprises a shaft , at least part of whose cross section is prismatic and on which the at least one scraping element is fitted by prismatic coupling to the shaft and in that the scraping element comprises a tubular portion with a polygonal internal cross section, adapted to be fitted by prismatic coupling to the shaft , the scraping element comprising a helicoid stretch intended for scraping the inside surface of the container .
A fuel system comprising: fuel tank; at least one fuel injector; at least one fuel tube that connects the fuel tank with the at least one fuel injector; and a screen fixed in the at least one fuel tube, the screen including a radical-scavenging material with a composition including cerium oxide that is chemically active with regard to oxygen-containing radicals. wherein: (i) the cerium oxide includes nanocrystallites and the cerium oxide is dispersed with a binder matrix material selected from an aluminosilicate sol-gel or an amorphous silicon material; or (ii) the screen has a radical-scavenging coating thereon, the radical-scavenging coating having, by weight, greater than 50% of cerium oxide; or (iii) the screen is a monolithic screen formed of cerium oxide. fuel tank; at least one fuel injector; at least one fuel tube that connects the fuel tank with the at least one fuel injector; and a screen fixed in the at least one fuel tube, the screen including a radical-scavenging material with a composition including cerium oxide that is chemically active with regard to oxygen-containing radicals. wherein: (i) the cerium oxide includes nanocrystallites and the cerium oxide is dispersed with a binder matrix material selected from an aluminosilicate sol-gel or an amorphous silicon material; or (ii) the screen has a radical-scavenging coating thereon, the radical-scavenging coating having, by weight, greater than 50% of cerium oxide; or (iii) the screen is a monolithic screen formed of cerium oxide. (i) the cerium oxide includes nanocrystallites and the cerium oxide is dispersed with a binder matrix material selected from an aluminosilicate sol-gel or an amorphous silicon material; or (ii) the screen has a radical-scavenging coating thereon, the radical-scavenging coating having, by weight, greater than 50% of cerium oxide; or (iii) the screen is a monolithic screen formed of cerium oxide.
Pulling and pushing device for a track-guided vehicle, in particular rail vehicle, having a coupling bar which is connected to a carriage body of a vehicle via a tension yoke and which serves for transmitting from the coupling bar to the carriage body pulling and pushing forces arising during driving operation, and having an energy absorption apparatus which is arranged between the carriage body-side end region of the coupling bar and the carriage body and which has a reversible energy absorption device , wherein the energy absorption apparatus is designed such that the force flow of the pressure forces or pushing forces transmitted from the coupling bar to said energy absorption apparatus and of the pulling forces transmitted via the tension yoke is directed through said energy absorption apparatus and transmitted to the carriage body via stop regions for the introduction of pulling forces and/or pressure forces to the carriage body or to a component connected at least indirectly to the latter, wherein the energy absorption apparatus , in the installation position, has, as viewed in the longitudinal direction of the coupling bar , a vehicle-side front transmission element and a vehicle-side rear transmission element , between which transmission elements the reversible energy absorption device is arranged in a prestressed manner, characterized in that the energy absorption apparatus furthermore comprises an energy absorption device with irreversible energy absorption, and the energy absorption apparatus is arranged within the axial extent of the tension yoke as viewed in the longitudinal direction of the vehicle.
A method for patrol inspecting and locating a radioactive substance, comprising: (a) providing a background radioactive intensity value of environment ; (b) collecting radioactive intensity values from a inspecting region by a detector at a plurality of sampling points on a patrol inspection route ; (c) calculating a radioactive intensity distribution in the inspecting region on basis of the collected radioactive intensity values and the background radioactive intensity value ; and (d) determining a position of the radioactive substance on basis of the radioactive intensity distribution , characterized in that the step (c) comprises a step (c1): dividing the inspecting region into a plurality of subregions, providing detection efficiencies of the detector to the subregions and determining the radioactive intensity of each subregion on basis of the background radioactive intensity and the detection efficiencies, and wherein the detector is provided on a movable carrier, and each of the detection efficiencies of the detector to the subregions is a ratio of a number of detected radiation particles to a number of particles emitted from a radiation source and is a function of position of the subregion, a position of the movable carrier and a directional angle of the movable carrier. (a) providing a background radioactive intensity value of environment ; (b) collecting radioactive intensity values from a inspecting region by a detector at a plurality of sampling points on a patrol inspection route ; (c) calculating a radioactive intensity distribution in the inspecting region on basis of the collected radioactive intensity values and the background radioactive intensity value ; and (d) determining a position of the radioactive substance on basis of the radioactive intensity distribution , dividing the inspecting region into a plurality of subregions, providing detection efficiencies of the detector to the subregions and determining the radioactive intensity of each subregion on basis of the background radioactive intensity and the detection efficiencies, and wherein the detector is provided on a movable carrier, and each of the detection efficiencies of the detector to the subregions is a ratio of a number of detected radiation particles to a number of particles emitted from a radiation source and is a function of position of the subregion, a position of the movable carrier and a directional angle of the movable carrier.
A blower comprising: a first tower which has a first discharge port formed in a first wall ; a second tower in which a second wall facing the first wall is spaced apart from the first wall , and a second discharge port is formed in the second wall ; a fan which is disposed below the first tower and the second tower , and forms an air flow in each of the first tower and the second tower ; a guide board (410; 1411; 2411, 2412; 3411; 3412) which is movably disposed in at least one of the first tower and the second tower ; and a guide motor which changes a disposition of the guide board (410; 1411; 2411, 2412; 3411; 3412), wherein a blowing space is formed between the first wall and the second wall , wherein an air discharged from the first discharge port and an air discharged from the second discharge port flow in the blowing space , and front, rear, and upper sides of the blowing space are open, and wherein the guide board (410; 1411; 2411, 2412; 3411; 3412) is disposed in a front side of the blowing space , and the guide board (410; 1411; 2411, 2412; 3411; 3412) is configured to be disposed inside at least one of the first tower and the second tower or disposed to protrude into the blowing space so as to adjust a wind direction of air flowing forward in the blowing space . a first tower which has a first discharge port formed in a first wall ; a second tower in which a second wall facing the first wall is spaced apart from the first wall , and a second discharge port is formed in the second wall ; a fan which is disposed below the first tower and the second tower , and forms an air flow in each of the first tower and the second tower ; a guide board (410; 1411; 2411, 2412; 3411; 3412) which is movably disposed in at least one of the first tower and the second tower ; and a guide motor which changes a disposition of the guide board (410; 1411; 2411, 2412; 3411; 3412), wherein a blowing space is formed between the first wall and the second wall , wherein an air discharged from the first discharge port and an air discharged from the second discharge port flow in the blowing space , and front, rear, and upper sides of the blowing space are open, and wherein the guide board (410; 1411; 2411, 2412; 3411; 3412) is disposed in a front side of the blowing space , and the guide board (410; 1411; 2411, 2412; 3411; 3412) is configured to be disposed inside at least one of the first tower and the second tower or disposed to protrude into the blowing space so as to adjust a wind direction of air flowing forward in the blowing space .
An electronic device for providing haptic feedback in response to a touch of a user, the electronic device comprising: a processor ; a display ; a touch sensor ; an actuator ; a touch controller ; characterized in that the electronic device comprises a haptic controller , and wherein the touch controller is configured to: determine whether the touch sensor senses a touch in a specific area of the display while the processor is in a sleep mode; and generate a touch event when the touch is recognized in the specific area , and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event . a processor ; a display ; a touch sensor ; an actuator ; a touch controller ; characterized in that the electronic device comprises a haptic controller , and wherein the touch controller is configured to: determine whether the touch sensor senses a touch in a specific area of the display while the processor is in a sleep mode; and generate a touch event when the touch is recognized in the specific area , and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event . determine whether the touch sensor senses a touch in a specific area of the display while the processor is in a sleep mode; and generate a touch event when the touch is recognized in the specific area , and wherein the haptic controller is configured to: receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event . receive the touch event generated from the touch controller through direct communication with the touch controller while the processor is kept in the sleep mode, and drive the actuator in response to the reception of the touch event .
An injector control system for a coiled tubing unit , the injector control system comprising: a programmable logic controller arranged to receive a signal related to sensed parameters of a coiled tubing injection operation; a traction pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one traction cylinder in a coiled tubing injection head ; a motor pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one motor of the coiled tubing injection head ; and at least one of the traction pressure control hydraulic circuit and the motor pressure control hydraulic circuit including a proportional control valve in receipt of a variable electrical signal from the programmable logic controller , wherein the programmable logic controller adjusts the signal delivered to the proportional control valve throughout the coiled tubing injection operation as dictated by the sensed parameters, and wherein the traction pressure control hydraulic circuit includes a traction valve controllable by operator input and the proportional control valve in receipt of the signal from the programmable logic controller , and the signal from the programmable logic controller operates the proportional control valve to prevent the traction valve from providing hydraulic pressure to the at least one traction cylinder that is lower than a minimum value required by the coiled tubing injection operation. a programmable logic controller arranged to receive a signal related to sensed parameters of a coiled tubing injection operation; a traction pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one traction cylinder in a coiled tubing injection head ; a motor pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one motor of the coiled tubing injection head ; and at least one of the traction pressure control hydraulic circuit and the motor pressure control hydraulic circuit including a proportional control valve in receipt of a variable electrical signal from the programmable logic controller , wherein the programmable logic controller adjusts the signal delivered to the proportional control valve throughout the coiled tubing injection operation as dictated by the sensed parameters, and wherein the traction pressure control hydraulic circuit includes a traction valve controllable by operator input and the proportional control valve in receipt of the signal from the programmable logic controller , and the signal from the programmable logic controller operates the proportional control valve to prevent the traction valve from providing hydraulic pressure to the at least one traction cylinder that is lower than a minimum value required by the coiled tubing injection operation.
A process for preparing canagliflozin hemihydrate crystals comprising the consecutive steps of a) preparing a solution in a crystallization vessel of canagliflozin in a solvent system comprising water in an amount from 0.37 wt% to 1.50 wt% under concentration and temperature conditions which allow the complete dissolution of canagliflozin; b) cooling the said solution to a temperature such that crystallization will start upon addition of a seed crystal; c) seeding the solution of step b) with crystalline canagliflozin hemihydrate; d) cooling the solution of step c) to a temperature ranging from 35°C to 47°C in order to obtain a crystalline suspension; e) removing a part of the crystalline suspension from the crystallization vessel in an amount that is less than the entire content and subjecting said part to particle size reduction, heating said part to a temperature higher than the temperature of the crystalline suspension in the crystallization vessel and returning said part back to the crystallization vessel; f) repeating step e) until the entire content of the crystallization vessel has undergone between 0.8 and 100 turnovers; g) isolating the crystals of crystalline canagliflozin hemihydrate thus formed. a) preparing a solution in a crystallization vessel of canagliflozin in a solvent system comprising water in an amount from 0.37 wt% to 1.50 wt% under concentration and temperature conditions which allow the complete dissolution of canagliflozin; b) cooling the said solution to a temperature such that crystallization will start upon addition of a seed crystal; c) seeding the solution of step b) with crystalline canagliflozin hemihydrate; d) cooling the solution of step c) to a temperature ranging from 35°C to 47°C in order to obtain a crystalline suspension; e) removing a part of the crystalline suspension from the crystallization vessel in an amount that is less than the entire content and subjecting said part to particle size reduction, heating said part to a temperature higher than the temperature of the crystalline suspension in the crystallization vessel and returning said part back to the crystallization vessel; f) repeating step e) until the entire content of the crystallization vessel has undergone between 0.8 and 100 turnovers; g) isolating the crystals of crystalline canagliflozin hemihydrate thus formed.
A downhole petroleum well tractor having a main body connectable to an electrically conducting logging cable from a surface high voltage DC power supply , characterized in that ; said main body comprising a common power line arranged to be provided with DC high voltage energy supplied from said electrical cable , two or more drive motors , each supplied with power from said common power line via a separate branch power line , wherein said common DC power line and said branch power line are arranged to operate on a high voltage between 300 V and 1800 V, and each said drive motors comprising a motor drive electronic unit connected to said separate local HV branch power line and driving one or more drive devices for running on and along a wall in a well for moving said tractor, a separate circuit breaker unit arranged on said branch power line for each said two or more drive motors , said circuit breaker units comprising a current meter unit arranged for monitoring a current (I) to said respective drive motor on said branch power line , a threshold comparator unit arranged for comparing said current (I) with a current level (Imax), and a control logic unit arranged for commanding a power switch on said branch power line to break if said current (I) exceeds said set current level (Imax).