mhurhangee/ep-ind-claims huggingface dataset:
A plasma torch comprising: an outlet aperture formed by a plurality of plasma outlet tubes which join to form a plurality of plasma outlets; a plurality of electrically conductive but isolated plasma tubes (108, 202), each having a first gap end and a second gap end; a plurality of hollow electrodes, each placed a first gap distance from an associated end of said isolated plasma tube first gap end, thereby forming a first gap; each said isolated plasma tube second gap end placed a second gap distance from an associated said plasma outlet tube, thereby forming a second gap; each said hollow electrode having a first gap gas inlet surrounding said first gap, an electrode gas inlet on the opposite end of said hollow electrode; a second gap gas inlet surrounding said second gap; wherein a plasma gas which enters said electrode gas inlet, said first gap gas inlet, and said second gap gas inlet; at least two said hollow electrodes energized with a voltage from a voltage source sufficient to ionize said plasma gas. an outlet aperture formed by a plurality of plasma outlet tubes which join to form a plurality of plasma outlets; a plurality of electrically conductive but isolated plasma tubes (108, 202), each having a first gap end and a second gap end; a plurality of hollow electrodes, each placed a first gap distance from an associated end of said isolated plasma tube first gap end, thereby forming a first gap; each said isolated plasma tube second gap end placed a second gap distance from an associated said plasma outlet tube, thereby forming a second gap; each said hollow electrode having a first gap gas inlet surrounding said first gap, an electrode gas inlet on the opposite end of said hollow electrode; a second gap gas inlet surrounding said second gap; wherein a plasma gas which enters said electrode gas inlet, said first gap gas inlet, and said second gap gas inlet; at least two said hollow electrodes energized with a voltage from a voltage source sufficient to ionize said plasma gas.
A spectrum management apparatus (100, 200) for wireless communications, comprising: a determining unit (101, 201), configured to determine, based on a spectrum sensing result with respect to an unlicensed frequency band by an LTE system performing the spectrum sensing in a management range of the spectrum management apparatus, spectrum time validity for the LTE system performing the spectrum sensing to use the unlicensed frequency band, wherein the determining unit is configured to, in the case that the spectrum sensing result indicates there exists another LTE system using spectrum resources of the unlicensed frequency band, determine spectrum time validity for the LTE system performing the spectrum sensing based on the spectrum time validity for the existing another LTE system; and characterised by comprising a transceiving unit (102, 202), configured to receive the spectrum sensing result from a base station and/or a user equipment of the LTE system performing the spectrum sensing, and transmit information on the determined spectrum time validity to the base station and/or user equipment of the LTE system performing the spectrum sensing. a determining unit (101, 201), configured to determine, based on a spectrum sensing result with respect to an unlicensed frequency band by an LTE system performing the spectrum sensing in a management range of the spectrum management apparatus, spectrum time validity for the LTE system performing the spectrum sensing to use the unlicensed frequency band, wherein the determining unit is configured to, in the case that the spectrum sensing result indicates there exists another LTE system using spectrum resources of the unlicensed frequency band, determine spectrum time validity for the LTE system performing the spectrum sensing based on the spectrum time validity for the existing another LTE system; and characterised by comprising a transceiving unit (102, 202), configured to receive the spectrum sensing result from a base station and/or a user equipment of the LTE system performing the spectrum sensing, and transmit information on the determined spectrum time validity to the base station and/or user equipment of the LTE system performing the spectrum sensing.
A tape drive comprising: a base; a supply spool support extending from the base on which a ribbon supply spool may be installed, the supply spool support being rotationally fixed with respect to the base, the supply spool support defining a spool rotation axis about which the ribbon supply spool may be caused to rotate to allow ribbon to travel along a ribbon path; characterised by a spring configured to: provide a first spring action, the first spring action configured to generate a braking force by friction and thereby resist relative rotation between the ribbon supply spool and the supply spool support, the first spring action further configured to retain the ribbon supply spool on the spool support; provide a second spring action configured to provide compliance in a length of the ribbon path during printing. a base; a supply spool support extending from the base on which a ribbon supply spool may be installed, the supply spool support being rotationally fixed with respect to the base, the supply spool support defining a spool rotation axis about which the ribbon supply spool may be caused to rotate to allow ribbon to travel along a ribbon path; characterised by a spring configured to: provide a first spring action, the first spring action configured to generate a braking force by friction and thereby resist relative rotation between the ribbon supply spool and the supply spool support, the first spring action further configured to retain the ribbon supply spool on the spool support; provide a second spring action configured to provide compliance in a length of the ribbon path during printing. provide a first spring action, the first spring action configured to generate a braking force by friction and thereby resist relative rotation between the ribbon supply spool and the supply spool support, the first spring action further configured to retain the ribbon supply spool on the spool support; provide a second spring action configured to provide compliance in a length of the ribbon path during printing.
A method for manufacturing a polymer by performing an anionic polymerization reaction by a flow-type reaction, comprising: introducing a liquid A containing an anionic polymerizable monomer, a liquid B containing an anionic polymerization initiator, and a polymerization terminator into different flow paths respectively and causing the liquids to flow in the respective flow paths; causing the liquid A and the liquid B to join together by using a multilayered cylindrical mixer, wherein the multilayered cylindrical mixer comprises a smallest cylinder and an adjacent cylinder which is adjacent to the smallest cylinder, wherein the interior of the smallest cylinder defines an internal flow path and the portion between the smallest cylinder and the adjacent cylinder defines an adjacent flow path; subjecting the anionic polymerizable monomer to anionic polymerization while a solution formed by the joining is flowing to downstream in a reaction flow path; and causing the solution, which has undergone the polymerization reaction and flows in the reaction flow path, and the polymerization terminator to join together such that the polymerization reaction is terminated, characterized in that the liquid flowing in the internal flow path has a linear velocity r1 and the liquid flowing in the adjacent flow path has a linear velocity r2, wherein the ratio of r1 and r2 satisfies the following Expression or: r 2 / r 1 ≤ 0.67 r2 / r1 ≥ 1.5 wherein the linear velocity (cm/min) is calculated by dividing a flow velocity (cm 3 /min) of the liquid A or B by a cross-sectional area (cm 2) of the respective flow path in the multilayered cylindrical mixer. introducing a liquid A containing an anionic polymerizable monomer, a liquid B containing an anionic polymerization initiator, and a polymerization terminator into different flow paths respectively and causing the liquids to flow in the respective flow paths; causing the liquid A and the liquid B to join together by using a multilayered cylindrical mixer, wherein the multilayered cylindrical mixer comprises a smallest cylinder and an adjacent cylinder which is adjacent to the smallest cylinder, wherein the interior of the smallest cylinder defines an internal flow path and the portion between the smallest cylinder and the adjacent cylinder defines an adjacent flow path; subjecting the anionic polymerizable monomer to anionic polymerization while a solution formed by the joining is flowing to downstream in a reaction flow path; and causing the solution, which has undergone the polymerization reaction and flows in the reaction flow path, and the polymerization terminator to join together such that the polymerization reaction is terminated, characterized in that the liquid flowing in the internal flow path has a linear velocity r1 and the liquid flowing in the adjacent flow path has a linear velocity r2, wherein the ratio of r1 and r2 satisfies the following Expression or: r 2 / r 1 ≤ 0.67 r2 / r1 ≥ 1.5 wherein the linear velocity (cm/min) is calculated by dividing a flow velocity (cm 3 /min) of the liquid A or B by a cross-sectional area (cm 2) of the respective flow path in the multilayered cylindrical mixer.
A guide catheter extension, comprising: a push member having a lumen, a proximal end and a distal end; a tube frame defining a lumen therein, a longitudinal axis, and a proximal segment and a distal segment, wherein the tube frame comprises a plurality of cut patterns (1015,1016) therein; and a tongue element extending from the proximal segment of the tube frame, wherein the tongue element is coupled to the push member, wherein the push member comprises a plurality of interrupted spiral cut patterns therein. a push member having a lumen, a proximal end and a distal end; a tube frame defining a lumen therein, a longitudinal axis, and a proximal segment and a distal segment, wherein the tube frame comprises a plurality of cut patterns (1015,1016) therein; and a tongue element extending from the proximal segment of the tube frame, wherein the tongue element is coupled to the push member, wherein the push member comprises a plurality of interrupted spiral cut patterns therein.
An integrated bracket for an automotive heat exchanger, in particular for a radiator, comprising: a radiator bracket base, having an inner side at which the heat exchange is located and an opposite outer side characterized in that the bracket base comprises a base plate and a supporting plate which are in contact with their surfaces faced to each other and each of the plates (1,2a) has latching and locking means to engage both plates one to the other; the plate which is selected from said supporting and base plates (1, 2a) and which is located at the outer side of the bracket is provided with at least one ball pin integrally formed with said plate and protruding from said plate at its outer side for fixing the bracket base in a car. a radiator bracket base, having an inner side at which the heat exchange is located and an opposite outer side characterized in that the bracket base comprises a base plate and a supporting plate which are in contact with their surfaces faced to each other and each of the plates (1,2a) has latching and locking means to engage both plates one to the other; the plate which is selected from said supporting and base plates (1, 2a) and which is located at the outer side of the bracket is provided with at least one ball pin integrally formed with said plate and protruding from said plate at its outer side for fixing the bracket base in a car.
A method comprising: depositing a slurry on at least a predetermined surface region of a ceramic matrix composite substrate, wherein the slurry comprises a solvent and particles comprising at least one of silicon metal or silicon carbide; drying the slurry to form a wicking layer on the predetermined surface region; heating the ceramic matrix composite substrate and the wicking layer to a temperature of at least 900 °C, and less than 1400 °C, to wick at least one wickable species from the ceramic matrix composite substrate into the wicking layer; and removing substantially all of the wicking layer from the predetermined surface region. depositing a slurry on at least a predetermined surface region of a ceramic matrix composite substrate, wherein the slurry comprises a solvent and particles comprising at least one of silicon metal or silicon carbide; drying the slurry to form a wicking layer on the predetermined surface region; heating the ceramic matrix composite substrate and the wicking layer to a temperature of at least 900 °C, and less than 1400 °C, to wick at least one wickable species from the ceramic matrix composite substrate into the wicking layer; and removing substantially all of the wicking layer from the predetermined surface region.
Lamp-receiving channel for receiving lamps, comprising a plurality of U-shaped segments arranged in a row, wherein each two adjacent segments are connected to be movable relative to each other, wherein each two adjacent segments are only connected to one another via a snap-in connection, wherein the U-shaped segments each have two V-legs (6, 8), as well as a connection leg connecting with the U-legs (6.8) wherein the snap-in connection has a snap-in element which is arranged on the connecting leg, characterized in that an arm is arranged on each of the U-legs (6, 8), and is so designed that it engages in an adjacent segment.
A semiconductor device comprising: an output driving circuit configured to output an output current to a solenoid incorporated in a vehicle through an output terminal; a detection resistor (Rs) connected between the output terminal and the output driving circuit; an amplification unit (41, 71, 81) configured to output an analog detection signal (VDET) generated by amplifying a voltage between both ends of the detection resistor (Rs); a current generation circuit configured to output a reference current (Iref); a reference resistor (Rref) connected between the current generation circuit and a ground and configured to output a reference voltage (Vref) according to the reference current (Iref); wherein an analog to digital, A/D, converter is configured to convert the analog detection signal (VDET) into a digital detection signal using the reference voltage (Vref) as a refer-ence; characterized by the detection resistor (Rs) and the reference resistor (Rref) are the same type resistor and have a physical layout as proximate as possible to precisely alleviate or eliminate a temperature variation appearing in the digital detection signal; and a control circuit is configured to control the output current output from the output driving circuit according to the digital detection signal so as to cancel the temperature characteristics of the amplification unit and the A/D converter in a wide temperature range. an output driving circuit configured to output an output current to a solenoid incorporated in a vehicle through an output terminal; a detection resistor (Rs) connected between the output terminal and the output driving circuit; an amplification unit (41, 71, 81) configured to output an analog detection signal (VDET) generated by amplifying a voltage between both ends of the detection resistor (Rs); a current generation circuit configured to output a reference current (Iref); a reference resistor (Rref) connected between the current generation circuit and a ground and configured to output a reference voltage (Vref) according to the reference current (Iref); wherein an analog to digital, A/D, converter is configured to convert the analog detection signal (VDET) into a digital detection signal using the reference voltage (Vref) as a refer-ence; characterized by the detection resistor (Rs) and the reference resistor (Rref) are the same type resistor and have a physical layout as proximate as possible to precisely alleviate or eliminate a temperature variation appearing in the digital detection signal; and a control circuit is configured to control the output current output from the output driving circuit according to the digital detection signal so as to cancel the temperature characteristics of the amplification unit and the A/D converter in a wide temperature range.
A method for efficiently fetching digital map data to be displayed in a viewport, the method comprising: displaying, via an interactive touchscreen user interface, a first digital map in a viewport at an initial position corresponding to a first geographic area; detecting, by one or more processors, a user gesture that communicates motion to the viewport via the interactive touchscreen user interface; determining, by the one or more processors, a trajectory of the viewport from the initial position to a target position corresponding to a second geographic area, based on at least one of speed and acceleration of the communicated motion; retrieving, by the one or more processors from a first memory, map data for displaying a second digital map in the viewport at the target position, prior to the viewport reaching the target position, wherein the retrieved map data for the second geographic area is displayed when the viewport has reached the target position; storing, by the one or more processors, the retrieved map data in a second memory having a higher speed of access than the first memory; and retrieving, by the one or more processors, the map data from the second memory for display via the interactive touchscreen user interface when the viewport is at the target position. displaying, via an interactive touchscreen user interface, a first digital map in a viewport at an initial position corresponding to a first geographic area; detecting, by one or more processors, a user gesture that communicates motion to the viewport via the interactive touchscreen user interface; determining, by the one or more processors, a trajectory of the viewport from the initial position to a target position corresponding to a second geographic area, based on at least one of speed and acceleration of the communicated motion; retrieving, by the one or more processors from a first memory, map data for displaying a second digital map in the viewport at the target position, prior to the viewport reaching the target position, wherein the retrieved map data for the second geographic area is displayed when the viewport has reached the target position; storing, by the one or more processors, the retrieved map data in a second memory having a higher speed of access than the first memory; and retrieving, by the one or more processors, the map data from the second memory for display via the interactive touchscreen user interface when the viewport is at the target position.
Grip for a pole, the grip comprising: ∘ a body, ∘ a retention element configured jointly with the body, the retention element being capable of interacting with the fixing element so as to secure the fixing element with the retention element in at least one direction, and ∘ a rocker configured jointly with the body, the rocker being mounted to move relative to the body between: - a locking position, in which the rocker is capable of positioning the fixing element in a configuration of interlocking with the retention element, and - an unlocking position, in which the rocker is capable of positioning the fixing element in a configuration of release of the retention element, wherein the grip further comprises a return device configured such as to exert on the rocker a return force that tends to return it from its unlocking position towards its locking position, characterized in that the rocker comprises a housing configured such as to at least in part house the fixing element of the article of clothing. ∘ a body, ∘ a retention element configured jointly with the body, the retention element being capable of interacting with the fixing element so as to secure the fixing element with the retention element in at least one direction, and ∘ a rocker configured jointly with the body, the rocker being mounted to move relative to the body between: - a locking position, in which the rocker is capable of positioning the fixing element in a configuration of interlocking with the retention element, and - an unlocking position, in which the rocker is capable of positioning the fixing element in a configuration of release of the retention element, wherein the grip further comprises a return device configured such as to exert on the rocker a return force that tends to return it from its unlocking position towards its locking position, characterized in that the rocker comprises a housing configured such as to at least in part house the fixing element of the article of clothing. - a locking position, in which the rocker is capable of positioning the fixing element in a configuration of interlocking with the retention element, and - an unlocking position, in which the rocker is capable of positioning the fixing element in a configuration of release of the retention element,
Method for operating a gas turbogroup, comprising compressing an air mass flow in a compressor, introducing the compressed air mass flow into a first combustion chamber, burning a first fuel mass flow in the compressed air mass flow in the first combustion chamber, expanding the generated hot gas in a first turbine, introducing the partially expanded hot gas into a second combustion chamber, and burning a second fuel mass flow in the partially expanded hot gas in the second combustion chamber, which method also comprises feeding the first fuel mass flow and the second fuel mass flow to the gas turbogroup with a fuel supply pressure, and predefining the division of a composite mass flow into the first and second fuel mass flows according to a normal operating concept, characterized in that when a limiting value of at least one of the fuel supply pressures is undershot the division according to the normal operating concept is departed from and the first fuel mass flow is reduced by a differential mass flow compared to the normal operating concept, and the second fuel mass flow is increased at least by the differential mass flow.