mhurhangee/patent-ind-claim-en huggingface dataset:
A heat dissipation structure for an electric circuit device , the structure including a layered structure comprising: a heatsink exposed on the electric circuit device ; a thermal conductive member ; and characterized by : a cooler arranged such that the thermal conductive member directly contacts with at least one of the heatsink and the cooler , wherein the thermal conductive member is a ceramic-resin composite comprising: 35 to 70 % by volume of a ceramic sintered body comprising boron nitride primary particles integrated into a three-dimensional structure, wherein the boron nitride primary particles have a mean particle diameter of 3 to 60 μm and an aspect ratio of 5 to 30; and 65 to 30 % by volume of a resin composition impregnated in the ceramic sintered body. a heatsink exposed on the electric circuit device ; a thermal conductive member ; and characterized by : a cooler arranged such that the thermal conductive member directly contacts with at least one of the heatsink and the cooler , wherein the thermal conductive member is a ceramic-resin composite comprising: 35 to 70 % by volume of a ceramic sintered body comprising boron nitride primary particles integrated into a three-dimensional structure, wherein the boron nitride primary particles have a mean particle diameter of 3 to 60 μm and an aspect ratio of 5 to 30; and 65 to 30 % by volume of a resin composition impregnated in the ceramic sintered body. a cooler arranged such that the thermal conductive member directly contacts with at least one of the heatsink and the cooler , wherein the thermal conductive member is a ceramic-resin composite comprising: 35 to 70 % by volume of a ceramic sintered body comprising boron nitride primary particles integrated into a three-dimensional structure, wherein the boron nitride primary particles have a mean particle diameter of 3 to 60 μm and an aspect ratio of 5 to 30; and 65 to 30 % by volume of a resin composition impregnated in the ceramic sintered body. 35 to 70 % by volume of a ceramic sintered body comprising boron nitride primary particles integrated into a three-dimensional structure, wherein the boron nitride primary particles have a mean particle diameter of 3 to 60 μm and an aspect ratio of 5 to 30; and 65 to 30 % by volume of a resin composition impregnated in the ceramic sintered body.
A valve body for a servovalve , the valve body comprising: a first surface ; a second surface offset from the first surface ; a first passage extending through the body from a first side of the body to a second side thereof and located between the first and second surfaces, wherein the first passage is sealed from an external environment at the first and second sides of the body; a second passage extending from the first surface towards the second surface and intersecting the first passage ; a supply port joined with the first passage ; a control port joined with the first passage , characterised by : a return port joined with the first passage ; and a third passage extending through the body from a third side of the body to a fourth side thereof, wherein the third passage is located between the first and second surfaces and intersects with the first passage , wherein the return port is formed by a first open end of the third passage at the third side of the body and a second open end of the third passage at the fourth side of the body . a first surface ; a second surface offset from the first surface ; a first passage extending through the body from a first side of the body to a second side thereof and located between the first and second surfaces, wherein the first passage is sealed from an external environment at the first and second sides of the body; a second passage extending from the first surface towards the second surface and intersecting the first passage ; a supply port joined with the first passage ; a control port joined with the first passage , characterised by : a return port joined with the first passage ; and a third passage extending through the body from a third side of the body to a fourth side thereof, wherein the third passage is located between the first and second surfaces and intersects with the first passage , wherein the return port is formed by a first open end of the third passage at the third side of the body and a second open end of the third passage at the fourth side of the body . a return port joined with the first passage ; and a third passage extending through the body from a third side of the body to a fourth side thereof, wherein the third passage is located between the first and second surfaces and intersects with the first passage , wherein the return port is formed by a first open end of the third passage at the third side of the body and a second open end of the third passage at the fourth side of the body .
An outlet to perform arc fault protection and detection, the outlet adapted to be located downstream from a circuit breaker , the outlet comprising: a switching element coupled between a line conductor and a neutral conductor having an open position and a closed position coupling the line conductor to the neutral conductor ; a voltage sensor coupled between the line conductor and the neutral conductor ; a current sensor coupled on the line conductor ; and a controller coupled to the switching element , the current sensor and the voltage sensor , the controller being adapted for detecting a voltage drop on the line conductor and no corresponding increase in current on the line conductor , said detecting being indicative of a parallel arc fault between the outlet and the circuit breaker , and the controller being further adapted for closing the switching element in response to the detecting, wherein the closed position of the switching element creates a low resistance path for current flow sufficient to cause the circuit breaker to trip. a switching element coupled between a line conductor and a neutral conductor having an open position and a closed position coupling the line conductor to the neutral conductor ; a voltage sensor coupled between the line conductor and the neutral conductor ; a current sensor coupled on the line conductor ; and a controller coupled to the switching element , the current sensor and the voltage sensor , the controller being adapted for detecting a voltage drop on the line conductor and no corresponding increase in current on the line conductor , said detecting being indicative of a parallel arc fault between the outlet and the circuit breaker , and the controller being further adapted for closing the switching element in response to the detecting, wherein the closed position of the switching element creates a low resistance path for current flow sufficient to cause the circuit breaker to trip.
Method for operating a crank press with at least 80% of its nominal pressing force for forming, particular for forging, workpieces, such as in particular a forging crank press, - wherein the press comprises a servo drive and a mass system, which is arranged between the servo drive and a workpiece and moves during operation of the press, - wherein a mass of the mass system is formed at least by a ram and at least by a drive shaft, - wherein the mass system is driven, at least at certain times, by the servo drive, - wherein the servo drive makes available a maximum of 80% of the nominal pressing force for a forming operation, characterized - in that the mass of the mass system is accelerated by the servo drive prior to the forming operation such that at least not less than 100% of the nominal pressing force is available during the forming operation. - wherein the press comprises a servo drive and a mass system, which is arranged between the servo drive and a workpiece and moves during operation of the press, - wherein a mass of the mass system is formed at least by a ram and at least by a drive shaft, - wherein the mass system is driven, at least at certain times, by the servo drive, - wherein the servo drive makes available a maximum of 80% of the nominal pressing force for a forming operation, - in that the mass of the mass system is accelerated by the servo drive prior to the forming operation such that at least not less than 100% of the nominal pressing force is available during the forming operation.
Rotorcraft provided with at least one motor , the rotorcraft comprising a power transmission box which is moved by the at least one motor , the rotorcraft comprising at least one rotor which is rotated by the power transmission box , the rotor being an aerodynamic member which is involved at least in the lift or the propulsion or the control of the yaw movement of the rotorcraft , the rotorcraft comprising at least one accessory which is not an aerodynamic member, the rotorcraft comprising a mechanical connection which mechanically connects the power transmission box and the at least one accessory , the power transmission box moving the accessory via the mechanical connection , the mechanical connection comprising at least one drive shaft which is connected to the power transmission box , characterised in that the rotorcraft comprises a power optimisation device , the power optimisation device comprising a disconnection device via disconnection of the drive shaft from the power transmission box , the disconnection device being controlled by a control processor , the control processor being configured to activate the disconnection device in order to disconnect the drive shaft from the power transmission box when the at least one motor is unusable.
Radiant panel intended to be installed inside a passenger compartment of a vehicle , for example a motor vehicle, the radiant panel comprising: - a dissipative region arranged to generate heat by Joule heating, - at least one functional component arranged to perform at least one function other than generating heat by Joule heating in the dissipative region , said radiant panel further comprising a first electrode and a second electrode that are arranged to at least produce an electric current in the dissipative region so as to generate heat, the radiant panel being characterized in that the two electrodes each comprise an additional branch , these two additional branches serving as an electrode for the at least one functional component . - a dissipative region arranged to generate heat by Joule heating, - at least one functional component arranged to perform at least one function other than generating heat by Joule heating in the dissipative region , said radiant panel further comprising a first electrode and a second electrode that are arranged to at least produce an electric current in the dissipative region so as to generate heat, the radiant panel being characterized in that the two electrodes each comprise an additional branch , these two additional branches serving as an electrode for the at least one functional component .
A headrest device , wherein a shock resistant surface is formed in a core material of a headrest main body, an opening section is formed in the shock resistant surface, characterized by a conical sound collecting section tapered toward an inner side of the core material from the opening section and collecting sound, and a non-contact type acoustic microphone receiving a sound wave with a vibration plate and converting the sound wave into an electric signal being disposed on an inner side of the sound collecting section .
A method of operating a wireless device in a wireless communication network, wherein the wireless device is a user equipment and/or a mobile terminal, and wherein the wireless device is adapted to transmit data on a second transmission frequency spectrum which is licensed and accessed based on pre-determined communication schedules, each communication schedule pertaining to a scheduling time interval of predetermined length, the method comprising - dynamically determining (WS10), by the wireless device, a Listen-Before-Talk, LBT, pattern of expected transmission accesses on at least a first transmission frequency spectrum which is unlicensed and accessed with LBT, the pattern covering a plurality of scheduling time intervals and comprising information indicating at which scheduling time intervals the wireless device is expected to perform a transmission access, wherein determining the pattern of expected transmission is based on one of, or any combination of: - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern. - dynamically determining (WS10), by the wireless device, a Listen-Before-Talk, LBT, pattern of expected transmission accesses on at least a first transmission frequency spectrum which is unlicensed and accessed with LBT, the pattern covering a plurality of scheduling time intervals and comprising information indicating at which scheduling time intervals the wireless device is expected to perform a transmission access, wherein determining the pattern of expected transmission is based on one of, or any combination of: - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern. - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern.
Smoking article, comprising a rod (32; 32') and a filter (34; 34') having a longitudinal axis and a circumference (π·d), the rod (32; 32') and the filter (34; 34') being connected by a tipping (36; 36'), which extends about the circumference and has a rod-sided edge line (37; 37') provided with a cut-out pattern (38; 38') along the circumference, wherein the cut-out pattern (38; 38'; 22; 22'; 22") excludes linear line segments running perpendicularly to the longitudinal axis and wherein the cut-out pattern (38; 38') is composed of periodically repeating subunits having a subunit length measured along the circumference, characterised in that the ratio of the circumference (π·d) to the subunit length is a natural number and in that the tipping comprises an overlap area where it overlaps to itself, wherein the cut-out pattern (22; 22'; 22") periodically continues at the rod-sided edge line of the overlap area .
An aircraft turbine engine comprising at least one combustion chamber and a body , in particular a low-pressure body, said body comprising, upstream of said chamber, an axial compressor , in particular low-pressure, intended to deliver air to said chamber and, downstream of said chamber, a turbine receiving hot gases from said chamber and intended to drive the rotor of said compressor, said compressor comprising at least one compression stage having a first stationary vane ring secured to a casing and a first movable vane ring extending radially at the periphery of said rotor of the compressor, said turbine engine being characterised in that it furthermore comprises, downstream of said compressor and upstream of said chamber, at least one electric machine which is coaxial or parallel to said body, the stator of which is secured to said casing and the rotor of which drives in rotation a second movable vane ring configured so as to generate a flow of air when it is rotated, said rotor of the electric machine being furthermore guided in rotation by at least one bearing secured to said casing so that the speed of rotation of said rotor of the electric machine is independent of the speed of rotation of the rotor of the compressor.
A composition comprising (a) a coating base selected from a water-dispersed coating, an epoxy polymer coating, an alkyd coating, a Type I urethane coating, or an unsaturated polyester coating; and (b) a fluorinated ester compound represented by Formula (I): where A is independently -OH, a C 1 -C 18 alkyl, -CH 2 OH, -CH 2 COOH, or (CH 2 CH 2 O) a (CH 2 CH(CH 3 )O) b H; a and b are independently 0 to 3, where a+b is 1 to 3; s is 0, 1 , or 2; Y is a linear or branched alkylene organic group having t+s substitutions, optionally interrupted by ether oxygen -O- and optionally having one or more alkoxylate linking groups that bond with A or [(CH 2 ) x -Q-Z-(CH 2 ) y -R f] ; x is 0 or 1 ; Q is -C(O)O- or -OC(O)-; Z is -(CH 2 ) y S- or -(CH 2 CH 2 O) m (CH 2 CH(CH 3 )O) n -; y is 2 to 6; m and n are independently 0 to 6, where m+n is 1 to 6; R f is a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more -CH 2 -, -CFH-, ether oxygens -O-, or combinations thereof; and t is 2, 3, 4, 5, or 6, such that s+t is 2 to 6. A is independently -OH, a C 1 -C 18 alkyl, -CH 2 OH, -CH 2 COOH, or (CH 2 CH 2 O) a (CH 2 CH(CH 3 )O) b H; a and b are independently 0 to 3, where a+b is 1 to 3; s is 0, 1 , or 2; Y is a linear or branched alkylene organic group having t+s substitutions, optionally interrupted by ether oxygen -O- and optionally having one or more alkoxylate linking groups that bond with A or [(CH 2 ) x -Q-Z-(CH 2 ) y -R f] ; x is 0 or 1 ; Q is -C(O)O- or -OC(O)-; Z is -(CH 2 ) y S- or -(CH 2 CH 2 O) m (CH 2 CH(CH 3 )O) n -; y is 2 to 6; m and n are independently 0 to 6, where m+n is 1 to 6; R f is a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more -CH 2 -, -CFH-, ether oxygens -O-, or combinations thereof; and t is 2, 3, 4, 5, or 6, such that s+t is 2 to 6.
A computer implemented method comprising: receiving speech ; determining, based on an application field to which recognized text is set to be provided, the application field being a field of an application and the field configured to receive recognized text, a speech recognition correction level , the speech recognition correction level indicating a level of accuracy that is indicated as acceptable when performing speech recognition of the speech; recognizing the speech at the speech recognition correction level to produce the recognized text ; and providing, to the application field, the recognized text . receiving speech ; determining, based on an application field to which recognized text is set to be provided, the application field being a field of an application and the field configured to receive recognized text, a speech recognition correction level , the speech recognition correction level indicating a level of accuracy that is indicated as acceptable when performing speech recognition of the speech; recognizing the speech at the speech recognition correction level to produce the recognized text ; and providing, to the application field, the recognized text .
An under-display camera assembly, comprising: an organic light-emitting diode display screen , a display region of which includes an under-display camera region and a non-under-display camera region , and a pixel density of the under-display camera region being set to be less than a pixel density of the non-under-display camera region ; and a camera module , an optical axis of which is perpendicular to a surface of the organic light-emitting diode display screen , and the camera module being located at a rear end of the under-display camera region ; wherein each pixel in the under-display camera region has a light-emitting layer and an isolation column surrounding the light-emitting layer , a side wall of the isolation column is inclined and an opening formed by the isolation column surrounding the light-emitting layer gradually expands from bottom to top, and the side wall of the isolation column has a light-blocking layer, wherein the light-blocking layer is formed on the side wall of the isolation column and made of a black insulating material, wherein, the light-emitting layer is formed at a bottom of a groove and a depth of the groove is greater than a height of the light-emitting layer , and a side wall of the groove is the side wall of the isolation column. an organic light-emitting diode display screen , a display region of which includes an under-display camera region and a non-under-display camera region , and a pixel density of the under-display camera region being set to be less than a pixel density of the non-under-display camera region ; and a camera module , an optical axis of which is perpendicular to a surface of the organic light-emitting diode display screen , and the camera module being located at a rear end of the under-display camera region ; wherein each pixel in the under-display camera region has a light-emitting layer and an isolation column surrounding the light-emitting layer , a side wall of the isolation column is inclined and an opening formed by the isolation column surrounding the light-emitting layer gradually expands from bottom to top, and the side wall of the isolation column has a light-blocking layer, wherein the light-blocking layer is formed on the side wall of the isolation column and made of a black insulating material, wherein, the light-emitting layer is formed at a bottom of a groove and a depth of the groove is greater than a height of the light-emitting layer , and a side wall of the groove is the side wall of the isolation column.
Ovatodiolide for use in treating an allergic disease selected from the group consisting of atopic dermatitis, psoriasis and autoimmune hepatitis.
Suction table comprising a workpiece holder for a workpiece to be held, wherein a suction device is arranged below and/or next to the workpiece holder , by means of which suction device particles and/or gases can be discharged downwards in an exhaust air stream, wherein the suction device is arranged around the workpiece holder and rotatable relative to the workpiece holder ; characterized in that the workpiece holder is of stationary design; and the suction device is configured to be rotatable around the workpiece holder . wherein a suction device is arranged below and/or next to the workpiece holder , by means of which suction device particles and/or gases can be discharged downwards in an exhaust air stream, wherein the suction device is arranged around the workpiece holder and rotatable relative to the workpiece holder ; characterized in that the workpiece holder is of stationary design; and the suction device is configured to be rotatable around the workpiece holder .