mhurhangee/ep-ind-claims huggingface dataset:
A 3-zone gasifier, comprising a casing surrounding a gasifier trough, a gasifier shell arranged above the gasifier trough and provided with an insulation, a gasifier head arranged above the gasifier shell and provided with an insulation, and a free gasifier space enclosed by the gasifier shell and the gasifier head, wherein • the gasifier trough, the gasifier shell and the gasifier head are connected to each other in a gas-tight manner, • there is at least one syngas outlet in the upper part of the gasifier shell, • the gasifier trough comprises a perforated bottom and is surrounded by a separating space which terminates in at least one discharge chute, • at least one solids inlet terminates in the gasifier trough, • the discharge chute comprises a lock and terminates in an outlet device for residues below the perforated bottom, • at least one gasifying agent supply leads into the discharge chute, • at least one injector leads into the gasifier trough above the filling limit, and • in the area of the connection between the gasifier trough and the free gasifier space, a sheathed, truncated cone, which is open both at its top and its bottom, tapers in diameter towards the gasifier head and is placed, in the shape of a bell, above the gasifier trough, said truncated cone and a baffle located on the inside of the gasifier shell together generate a radial, annular gap opening and a flow channel, characterized in that the upper opening of the truncated cone, which faces the gasifier head, is provided as a flow control valve in such a manner that a flow control valve body with a centric guide is arranged above a valve seat in the form of a flow ring, thereby generating a central, annular gap opening, said truncated cone or said flow control valve body being movable vertically and lockable, so that the annular gap opening is dimensionally adjusted by the vertical position of the truncated cone or of the flow control valve body, and the perforated bottom is provided with a contaminant discharge. • the gasifier trough, the gasifier shell and the gasifier head are connected to each other in a gas-tight manner, • there is at least one syngas outlet in the upper part of the gasifier shell, • the gasifier trough comprises a perforated bottom and is surrounded by a separating space which terminates in at least one discharge chute, • at least one solids inlet terminates in the gasifier trough, • the discharge chute comprises a lock and terminates in an outlet device for residues below the perforated bottom, • at least one gasifying agent supply leads into the discharge chute, • at least one injector leads into the gasifier trough above the filling limit, and • in the area of the connection between the gasifier trough and the free gasifier space, a sheathed, truncated cone, which is open both at its top and its bottom, tapers in diameter towards the gasifier head and is placed, in the shape of a bell, above the gasifier trough, said truncated cone and a baffle located on the inside of the gasifier shell together generate a radial, annular gap opening and a flow channel,
Propellant magazine with a device for the distribution and/or the delivery of cooling air, whereby the propellant magazine comprises a magazine housing in which a number of propellants can be arranged, together with a cooling air connection and at least one air outlet opening and whereby to cool the propellants the device for the distribution and/or the delivery of cooling air is arranged inside the propellant magazine or in its immediate vicinity.
Process for producing monodisperse chelate resins having aminomethyl-nitrogen heterocyclic groups as functional groups, characterized in that a) monomer droplets composed of at least one monovinylaromatic compound, at least one polyvinylaromatic compound and an initiator or an initiator combination, and optionally a porogen, are converted to a monodisperse, cross-linked bead polymer, b) said monodisperse, cross-linked bead polymer is amidomethylated with phthalimide derivatives, c) the amidomethylated bead polymer is converted to an aminomethylated bead polymer and d) the aminomethylated bead polymer is converted to a chelate resin having aminomethyl-nitrogen heterocyclic groups as functional groups without subsequent crosslinking and a pH in the range of 4 to 9 is maintained during the reaction with a halomethyl-nitrogen heterocycle. a) monomer droplets composed of at least one monovinylaromatic compound, at least one polyvinylaromatic compound and an initiator or an initiator combination, and optionally a porogen, are converted to a monodisperse, cross-linked bead polymer, b) said monodisperse, cross-linked bead polymer is amidomethylated with phthalimide derivatives, c) the amidomethylated bead polymer is converted to an aminomethylated bead polymer and d) the aminomethylated bead polymer is converted to a chelate resin having aminomethyl-nitrogen heterocyclic groups as functional groups without subsequent crosslinking and a pH in the range of 4 to 9 is maintained during the reaction with a halomethyl-nitrogen heterocycle.
A thermographic inspection system comprising: a heat source configured to be removably attached to an exterior surface of an object; a thermal imaging device configured to obtain a thermal image of the object; and an analyzing device configured to determine a location of a defect in the object based on the thermal image, the system being characterised in that: the imaging device is configured to capture thermal images of the heat source, and wherein the analyzing device is configured to determine a surface temperature of the heat source to determine the location of the defect in the object. a heat source configured to be removably attached to an exterior surface of an object; a thermal imaging device configured to obtain a thermal image of the object; and an analyzing device configured to determine a location of a defect in the object based on the thermal image, the system being characterised in that: the imaging device is configured to capture thermal images of the heat source, and wherein the analyzing device is configured to determine a surface temperature of the heat source to determine the location of the defect in the object. the imaging device is configured to capture thermal images of the heat source, and wherein the analyzing device is configured to determine a surface temperature of the heat source to determine the location of the defect in the object.
A substantially planar absorbent core extending in a transversal direction (x) and a longitudinal direction (y), comprising a core wrap (16, 16') enclosing an absorbent material, wherein the absorbent material comprises at least less than 20% by weight of cellulose fibers relative to the total weight of absorbent material and forms a pattern of discrete absorbent material areas, characterized in that the pattern comprises dot-shaped areas and at least one of transversally-orientated areas and longitudinally-orientated areas, wherein the transversally-orientated areas extend at least 2.5 times more than in the transversal direction than in the longitudinal direction, and the longitudinally-oriented areas extend at least 2.5 times more in the longitudinal direction than in the transversal direction; and wherein at least some of the dot-shaped areas are comprised in the back third region of the absorbent core.
A heating cooker comprising: a body; an inner case disposed within the body, and provided therein with a cooking chamber to cook food; a detection hole formed at one side wall of the inner case, to allow an infrared ray generated in the cooking chamber to exit outwardly from the cooking chamber; an infrared sensor (120, 220, 320, 420, 520) to detect an infrared ray, thereby measuring an internal temperature of the cooking chamber; and a path change unit (130, 230, 330) disposed in the vicinity of the detection hole, to change a path of the infrared ray generated in the cooking chamber toward the infrared, sensor, characterized in that wherein the path change unit (130, 230, 330) is rotatable to enable the infrared sensor to receive infrared rays having different paths that are generated in different regions in the cooking chamber, and wherein a distance, by which the infrared sensor (120, 220, 320,420,520) is spaced apart from the center of the path change unit (30,230,330), is kept constant during rotation of the path change unit (130,230,330). a body; an inner case disposed within the body, and provided therein with a cooking chamber to cook food; a detection hole formed at one side wall of the inner case, to allow an infrared ray generated in the cooking chamber to exit outwardly from the cooking chamber; an infrared sensor (120, 220, 320, 420, 520) to detect an infrared ray, thereby measuring an internal temperature of the cooking chamber; and a path change unit (130, 230, 330) disposed in the vicinity of the detection hole, to change a path of the infrared ray generated in the cooking chamber toward the infrared, sensor, characterized in that
A display device comprising: a display configured to display an image; and a controller configured to reduce a blue component in the image in response to receiving an execution command of a blue light reduction function, characterized in that: the controller is further configured to: detect a protection area forming part of the image and being composed of pixels having a B value among RGB signals equal to or less than a preset reference value, and perform said reduction of the blue component in the image such that an amount of reduction of the blue component of the protection area is less than that of the remaining area. a display configured to display an image; and a controller configured to reduce a blue component in the image in response to receiving an execution command of a blue light reduction function, characterized in that: the controller is further configured to: detect a protection area forming part of the image and being composed of pixels having a B value among RGB signals equal to or less than a preset reference value, and perform said reduction of the blue component in the image such that an amount of reduction of the blue component of the protection area is less than that of the remaining area. detect a protection area forming part of the image and being composed of pixels having a B value among RGB signals equal to or less than a preset reference value, and perform said reduction of the blue component in the image such that an amount of reduction of the blue component of the protection area is less than that of the remaining area.
System for automatic parking of a vehicle, comprising: - a laser remote sensing device, configured to measure a distance traveled between the vehicle and a fixed target; - measuring sensors, arranged to measure a number of wheel revolutions of the vehicle to cover a given distance; - calculation means, configured for: calculate the dimensions of the wheels of the vehicle from the distance measured by the laser remote sensing device and from the number of wheel revolutions measured by the measuring sensors to travel said distance measured; calculate a parking trajectory of the vehicle based on the calculated dimensions of the wheels of the vehicle; characterized in that said system comprises at least one sensor, arranged to measure the distance traveled between the vehicle and the fixed target, the sensor preferably being chosen from: - an ultrasonic sensor, - a camera, presenting a field of vision including the fixed target; in which the calculation means are configured to calculate the dimensions of the wheels of the vehicle from the average distance measured by the laser remote sensing device and by the sensor, and from the number of wheel revolutions measured by the measuring sensors to cover said measured average distance. - a laser remote sensing device, configured to measure a distance traveled between the vehicle and a fixed target; - measuring sensors, arranged to measure a number of wheel revolutions of the vehicle to cover a given distance; - calculation means, configured for: calculate the dimensions of the wheels of the vehicle from the distance measured by the laser remote sensing device and from the number of wheel revolutions measured by the measuring sensors to travel said distance measured; calculate a parking trajectory of the vehicle based on the calculated dimensions of the wheels of the vehicle; characterized in that said system comprises at least one sensor, arranged to measure the distance traveled between the vehicle and the fixed target, the sensor preferably being chosen from: calculate the dimensions of the wheels of the vehicle from the distance measured by the laser remote sensing device and from the number of wheel revolutions measured by the measuring sensors to travel said distance measured; calculate a parking trajectory of the vehicle based on the calculated dimensions of the wheels of the vehicle; characterized in that said system comprises at least one sensor, arranged to measure the distance traveled between the vehicle and the fixed target, the sensor preferably being chosen from: - an ultrasonic sensor, - a camera, presenting a field of vision including the fixed target;
A method of transmitting, by a user equipment, a narrowband physical random access channel, NPRACH, preamble in a narrow band-Internet of things, NB-IoT, system supporting time division duplexing, TDD, the method comprising: receiving, from a base station, control information related to an uplink-downlink configuration that is related to control in which subframes uplink or downlink transmissions take place in a frame; and transmitting, to the base station, the NPRACH preamble, wherein the NPRACH preamble is repeatedly transmitted as a plurality of preamble repetition units, with each preamble repetition unit including a plurality of symbol groups, and with each symbol group including one cyclic prefix, CP, and one or more symbols, wherein not all symbol groups included in the each preamble repetition unit are contiguous in time, a subcarrier spacing for the NPRACH preamble is configured as 3.75kHz, (i) a length of the CP and (ii) a number of symbols included in the each symbol group depend on the uplink-downlink configuration, and the number of symbols included in the each symbol group is less than 5, and the length of the CP is shorter than a length of one symbol of the each symbol group. receiving, from a base station, control information related to an uplink-downlink configuration that is related to control in which subframes uplink or downlink transmissions take place in a frame; and transmitting, to the base station, the NPRACH preamble, wherein the NPRACH preamble is repeatedly transmitted as a plurality of preamble repetition units, with each preamble repetition unit including a plurality of symbol groups, and with each symbol group including one cyclic prefix, CP, and one or more symbols, wherein not all symbol groups included in the each preamble repetition unit are contiguous in time, a subcarrier spacing for the NPRACH preamble is configured as 3.75kHz, (i) a length of the CP and (ii) a number of symbols included in the each symbol group depend on the uplink-downlink configuration, and the number of symbols included in the each symbol group is less than 5, and the length of the CP is shorter than a length of one symbol of the each symbol group.
An automotive body domain architecture of a vehicle, the architecture including a pushbutton panel (408, 410; 562) associated with a wireless communication module and an actuator system, the actuator system comprising: 1.1 a motor assembly including: 1.1.1 a shaft carrying a coil and a commutator; 1.1.2 at least one brush associated with the commutator; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft, coil and commutator; 1.2 a wireless communication module connected to the sensor and to the at least one brush, the module being configured to: 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit (656a, 656b) drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor; and 1.3 a housing containing each of the motor assembly and the communication module; wherein the wireless communication module associated with the pushbutton panel (408, 410, 562) is adapted to wirelessly transmit a command signal to the wireless communication module of the motor assembly. 1.1 a motor assembly including: 1.1.1 a shaft carrying a coil and a commutator; 1.1.2 at least one brush associated with the commutator; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft, coil and commutator; 1.1.1 a shaft carrying a coil and a commutator; 1.1.2 at least one brush associated with the commutator; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft, coil and commutator; 1.2 a wireless communication module connected to the sensor and to the at least one brush, the module being configured to: 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit (656a, 656b) drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor; and 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit (656a, 656b) drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor; and 1.3 a housing containing each of the motor assembly and the communication module; wherein the wireless communication module associated with the pushbutton panel (408, 410, 562) is adapted to wirelessly transmit a command signal to the wireless communication module of the motor assembly.
A method for fabricating a membrane having hydrophilic surface region and hydrophobic surface region, the method comprising: preparing a template with nano-scale holes formed on its outer surface; coating a polymer material on a region of a predetermined pattern of the outer surface of the template; attaching a hydrophilic film on the outer surface of the template; and removing the template from the hydrophilic film, wherein the template comprises an anodized layer (120, 220) having nano-scale holes formed on an outer surface of a metal substrate (110, 210) by anodizing the metal substrate (110, 210), the polymer material is coated on the region of a predetermined pattern intended to be formed as a hydrophobic region such that it is completely injected into the nano-scale holes and then coagulated, and the hydrophilic film has an adhesive property allowing the polymer material to be attached thereon. preparing a template with nano-scale holes formed on its outer surface; coating a polymer material on a region of a predetermined pattern of the outer surface of the template; attaching a hydrophilic film on the outer surface of the template; and removing the template from the hydrophilic film, wherein the template comprises an anodized layer (120, 220) having nano-scale holes formed on an outer surface of a metal substrate (110, 210) by anodizing the metal substrate (110, 210), the polymer material is coated on the region of a predetermined pattern intended to be formed as a hydrophobic region such that it is completely injected into the nano-scale holes and then coagulated, and the hydrophilic film has an adhesive property allowing the polymer material to be attached thereon.
A method in a wireless device of transmitting data on a first channel in unlicensed spectrum, the method comprising: determining that a transmitter is transmitting a first signal on the first channel in unlicensed spectrum; transmitting a second signal to cause the transmitter to cease transmitting the first signal, wherein the second signal is a signal for use to abort on ongoing transmission; and transmitting the data on the first channel in unlicensed spectrum. determining that a transmitter is transmitting a first signal on the first channel in unlicensed spectrum; transmitting a second signal to cause the transmitter to cease transmitting the first signal, wherein the second signal is a signal for use to abort on ongoing transmission; and transmitting the data on the first channel in unlicensed spectrum.
A TiO 2 catalyst structure for the catalytic processes at the temperatures up to 800°C in a form of powder consisting of TiO 2 nano-particles in the anatase crystal form doped with phosphorus, wherein the content of phosphorus is 0.05 to 5 wt% on the TiO 2 basis, and the nano-particles in the anatase crystal form are organized into the circular planar aggregates with the specific surface area from 40 to 120 m 2 /g, wherein the TiO 2 catalyst structure consisting of TiO 2 nano-particles is made by drying and calcination of the intermediate product in the temperature range from 350 to 900°C for 1 to 24 hours, wherein the intermediate product is made by addition a phosphorus compound corresponding to 0.05 to 5 wt % of a phosphorus on the TiO 2 basis to the titanium hydrate paste prepared by hydrolysis of titanium oxysulphate.
Hybrid drivetrain for a motor vehicle, having a combustion engine (12; 12') and having an electric machine which is connected to power electronics and to an electrical energy store and which has a stator and a rotor, which combustion engine and electric machine are connectable in torque-transmitting fashion to an output shaft, wherein - the combustion engine (12, 12') is coupled to a combustion engine driveshaft (20; 20') which bears one or more driveshaft pinions (201, 202), - the rotor of the electric machine is coupled to an electric machine driveshaft, which bears one or more driveshaft pinions and is arranged coaxially with respect to the combustion engine driveshaft (20; 20'), via a planetary gear set comprising a sun gear, which acts as input element, a web, which acts as output element, and an internal gear, - the at least one driveshaft pinion (201, 202) of the combustion engine driveshaft (20; 20') forms a switchably torque-transmitting pinion pairing with a corresponding collective shaft pinion (221, 222) of a first collective shaft which is coupled in torque-transmitting fashion to the output shaft, and - the at least one driveshaft pinion of the electric machine driveshaft forms a torque-transmitting pinion pairing with a corresponding collective shaft pinion (224; 421) of a collective shaft (22; 42) which is coupled in torque-transmitting fashion to the output shaft, characterized in that the rotor of the electric machine is selectively connectable to either the sun gear or the web of the planetary gear set, the internal gear of which is arranged fixedly with respect to a housing, by means of a switchable clutch. - the combustion engine (12, 12') is coupled to a combustion engine driveshaft (20; 20') which bears one or more driveshaft pinions (201, 202), - the rotor of the electric machine is coupled to an electric machine driveshaft, which bears one or more driveshaft pinions and is arranged coaxially with respect to the combustion engine driveshaft (20; 20'), via a planetary gear set comprising a sun gear, which acts as input element, a web, which acts as output element, and an internal gear, - the at least one driveshaft pinion (201, 202) of the combustion engine driveshaft (20; 20') forms a switchably torque-transmitting pinion pairing with a corresponding collective shaft pinion (221, 222) of a first collective shaft which is coupled in torque-transmitting fashion to the output shaft, and - the at least one driveshaft pinion of the electric machine driveshaft forms a torque-transmitting pinion pairing with a corresponding collective shaft pinion (224; 421) of a collective shaft (22; 42) which is coupled in torque-transmitting fashion to the output shaft,