mhurhangee/patent-ind-claim-en huggingface dataset:
Device for generating accelerated electrons, comprising a housing , which delimits an evacuable space (102a; 102b) and comprises an electron exit window ; an inlet for the supply of a working gas into the evacuable space ; at least one first cathode and at least one first anode, between which a glow discharge plasma can be generated in the evacuable space by means of a first applicable electrical voltage, wherein ions from the glow discharge plasma can be accelerated toward the surface of a second cathode and electrons which can be emitted by the second cathode can be accelerated in the direction of the electron exit window by means of a second electrical voltage applicable between the second cathode and a second anode , characterized in that the housing , the second cathode , and the electron exit window are formed as a non-closed ring having a ring angle of at least 45°, wherein the surface perpendicular lines of the electron exit window and of the surface region of the second cathode , from which electrons can be emitted, are oriented toward the interior of the ring, wherein the first anode comprises a number of wire-shaped electrodes , which extend through the space , wherein the space is divided by means of walls into partial segments , wherein each partial segment comprises at least one wire-shaped electrode , which extends through the partial segment , and at least one separate power supply unit is associated with each partial segment , by means of which the strength of the electric current which flows through the at least one electrode of a respective partial segment is settable.
An image processing method performed at a client device having one or more processors and memory for storing programs to be executed by the processors, the method comprising: detecting by the client device an image to be processed to obtain image information, and uploading the image information to a server, wherein the image information comprises a plurality of image capture parameters used for capturing the image, and the server is configured to: receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receiving by the client device the at least one case related to the image; and processing the image to be processed by the client device according to the at least one case related to the image, and modifying the image using the set of image modification parameters. detecting by the client device an image to be processed to obtain image information, and uploading the image information to a server, wherein the image information comprises a plurality of image capture parameters used for capturing the image, and the server is configured to: receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receiving by the client device the at least one case related to the image; and processing the image to be processed by the client device according to the at least one case related to the image, and modifying the image using the set of image modification parameters.
A solar cell module comprising: a surface-protective sheet; a light-receiving-side encapsulation sheet; a solar cell element; a back-side encapsulation sheet; and a rear protective sheet laminated in the order presented, wherein the light-receiving-side encapsulation sheet has 50% or higher transmittance of light having a wavelength of 300 nm, and the back-side encapsulation sheet comprises a reaction product of a reactive ultraviolet absorber and a resin component, wherein the reactive ultraviolet absorber contains an unsaturated group having a carbon-carbon double bond, and the resin component is an ethylene-polar monomer copolymer or an ethylene-α-olefin copolymer. a surface-protective sheet; a light-receiving-side encapsulation sheet; a solar cell element; a back-side encapsulation sheet; and a rear protective sheet laminated in the order presented, wherein the light-receiving-side encapsulation sheet has 50% or higher transmittance of light having a wavelength of 300 nm, and the back-side encapsulation sheet comprises a reaction product of a reactive ultraviolet absorber and a resin component, wherein the reactive ultraviolet absorber contains an unsaturated group having a carbon-carbon double bond, and the resin component is an ethylene-polar monomer copolymer or an ethylene-α-olefin copolymer.
A method for manufacturing a compact (S), comprising: a mixing step of mixing a fiber (M6) and a powder of a binder (P1) to obtain a mixture (M7); an accumulating step of accumulating the mixture to form a web (M8); a humidifying step of adding water to the web; and a forming step of heating and pressurizing the water-added web to obtain a compact (S), wherein the binder binds between fiber molecules by the addition of water; characterized in that the powder has a specific surface area of 0.2 m 2 /g or more; the binder is selected from starch and dextrin; and the humidifying step performs humidification such that the web has a moisture content of 7.0 mass% or more and 50.0 mass% or less with respect to the total mass of the web. a mixing step of mixing a fiber (M6) and a powder of a binder (P1) to obtain a mixture (M7); an accumulating step of accumulating the mixture to form a web (M8); a humidifying step of adding water to the web; and a forming step of heating and pressurizing the water-added web to obtain a compact (S), the binder binds between fiber molecules by the addition of water; characterized in that the powder has a specific surface area of 0.2 m 2 /g or more; the binder is selected from starch and dextrin; and the humidifying step performs humidification such that the web has a moisture content of 7.0 mass% or more and 50.0 mass% or less with respect to the total mass of the web.
A bicycle frame sealing means comprising a frame-side sealing element adapted to be connected with a saddle tube of a bicycle frame in a sealing manner, a saddle post-side sealing element adapted to be connected with a saddle post in a sealing manner, and a flexible connecting element arranged between the two sealing elements , characterized in that the frame-side sealing element is connected with the saddle tube via an intermediate element , wherein the intermediate element comprises a cylindrical, in particular circular cylindrical protrusion protruding into the saddle tube when in the mounted state. a frame-side sealing element adapted to be connected with a saddle tube of a bicycle frame in a sealing manner, a saddle post-side sealing element adapted to be connected with a saddle post in a sealing manner, and a flexible connecting element arranged between the two sealing elements , characterized in that the frame-side sealing element is connected with the saddle tube via an intermediate element , wherein the intermediate element comprises a cylindrical, in particular circular cylindrical protrusion protruding into the saddle tube when in the mounted state.
An elevator safety circuit comprising: a plurality of relays including a brake relay , a drive relay and a safety relay , the safety relay being a forced guided relay and the brake relay and the drive relay being other than forced guided relays; safety logic for monitoring status of the plurality of relays , the safety logic generating an output signal in response to the status of the plurality of relays ; and a processor controlling operation of an elevator drive in response to the output signal; wherein the brake relay and a first contact of the safety relay apply or interrupt power to an elevator brake ; wherein the drive relay and a second contact of the safety relay apply or interrupt power to an elevator drive ; wherein the elevator safety circuit further comprises: a first connection between the brake relay and the safety logic to provide a brake relay monitoring signal to the safety logic ; a second connection between the drive relay and the safety logic to provide a drive relay monitoring signal to the safety logic ; characterized in that the elevator safety circuit further comprises a third connection between a third contact of the safety relay and the safety logic to provide a safety relay monitoring signal to the safety logic ; and in that the safety logic is configured for generating an output signal in response to the drive relay monitoring signal and the brake relay monitoring signal and the safety relay monitoring signal. a plurality of relays including a brake relay , a drive relay and a safety relay , the safety relay being a forced guided relay and the brake relay and the drive relay being other than forced guided relays; safety logic for monitoring status of the plurality of relays , the safety logic generating an output signal in response to the status of the plurality of relays ; and a processor controlling operation of an elevator drive in response to the output signal; wherein the brake relay and a first contact of the safety relay apply or interrupt power to an elevator brake ; wherein the drive relay and a second contact of the safety relay apply or interrupt power to an elevator drive ; wherein the elevator safety circuit further comprises: a first connection between the brake relay and the safety logic to provide a brake relay monitoring signal to the safety logic ; a second connection between the drive relay and the safety logic to provide a drive relay monitoring signal to the safety logic ; a first connection between the brake relay and the safety logic to provide a brake relay monitoring signal to the safety logic ; a second connection between the drive relay and the safety logic to provide a drive relay monitoring signal to the safety logic ; characterized in that the elevator safety circuit further comprises a third connection between a third contact of the safety relay and the safety logic to provide a safety relay monitoring signal to the safety logic ; and in that the safety logic is configured for generating an output signal in response to the drive relay monitoring signal and the brake relay monitoring signal and the safety relay monitoring signal.
A Panax plant extract, characterized in that the Panax plant extract contains GinsenosideRg3, GinsenosideRk1 and GinsenosideRg5, and a mass ratio of the GinsenosideRk1 and the GinsenosideRg5 is 1:1.0-1.5; the GinsenosideRg3 includes 20(R)-GinsenosideRg3 and 20(S)-GinsenosideRg3, and a mass ratio of the 20(R)-GinsenosideRg3 and 20(S)-GinsenosideRg3 is 1-1.5; and the Panax plant extract also contains GinsenosideRg2, GinsenosideRh1 and GinsenosideRh2; a mass percentage of the GinsenosideRg3, the GinsenosideRg5, the GinsenosideRk1, the GinsenosideRg2, the GinsenosideRh1 and the GinsenosideRh2 meets the following formula: 60 % ≤ Rg 5 + Rk 1 + Rg 3 / Rg 5 + Rk 1 + Rg 3 + Rg 2 + Rh 1 + Rh 2 < 100 % . the GinsenosideRg3 includes 20(R)-GinsenosideRg3 and 20(S)-GinsenosideRg3, and a mass ratio of the 20(R)-GinsenosideRg3 and 20(S)-GinsenosideRg3 is 1-1.5; and the Panax plant extract also contains GinsenosideRg2, GinsenosideRh1 and GinsenosideRh2; a mass percentage of the GinsenosideRg3, the GinsenosideRg5, the GinsenosideRk1, the GinsenosideRg2, the GinsenosideRh1 and the GinsenosideRh2 meets the following formula: 60 % ≤ Rg 5 + Rk 1 + Rg 3 / Rg 5 + Rk 1 + Rg 3 + Rg 2 + Rh 1 + Rh 2 < 100 % .
Method for operating a micro turbine assembly, in which fuel in the form of fuel gas is supplied to a combustion chamber system via a fuel supply line , wherein - the fuel flow upstream of the combustion chamber system is compressed to a supply pressure by means of a compressor device of a compressor unit and, downstream of the compressor unit , is allocated in a burner-specific portion to two line portions for the separate fuel supply of a main stage and a pilot stage of the combustion chamber system and, after allocation, the fuel flows through at least one cross-sectional reduction means arranged in the burner-specific portion , - the fuel flow is controlled or regulated via the line portion of the pilot stage by means of the at least one cross-sectional reduction means on the basis of the fuel flow via the line portion of the main stage, - the fuel flow is controlled or regulated via the line portion of the pilot stage on the basis of a predetermined ratio to the fuel flow via the line section of the main stage, and wherein - for controlling or regulating the fuel flow, the ratio of the fuel flow of the pilot stage to the fuel flow of the main stage is determined in a determination unit at least on the basis of a turbine outlet temperature downstream of a turbine assembly of the micro turbine assembly and a turbine speed of the turbine assembly , and an open position of the cross-sectional reduction means is subsequently determined in the determination unit taking the ratio into account, and is specified to the cross-sectional reduction means. - the fuel flow upstream of the combustion chamber system is compressed to a supply pressure by means of a compressor device of a compressor unit and, downstream of the compressor unit , is allocated in a burner-specific portion to two line portions for the separate fuel supply of a main stage and a pilot stage of the combustion chamber system and, after allocation, the fuel flows through at least one cross-sectional reduction means arranged in the burner-specific portion , - the fuel flow is controlled or regulated via the line portion of the pilot stage by means of the at least one cross-sectional reduction means on the basis of the fuel flow via the line portion of the main stage, - the fuel flow is controlled or regulated via the line portion of the pilot stage on the basis of a predetermined ratio to the fuel flow via the line section of the main stage, and wherein - for controlling or regulating the fuel flow, the ratio of the fuel flow of the pilot stage to the fuel flow of the main stage is determined in a determination unit at least on the basis of a turbine outlet temperature downstream of a turbine assembly of the micro turbine assembly and a turbine speed of the turbine assembly , and an open position of the cross-sectional reduction means is subsequently determined in the determination unit taking the ratio into account, and is specified to the cross-sectional reduction means.
A method for conducting maintenance on a chromatography column , said column comprising a column tube , a top end cell and a bottom end cell , where during chromatography said column tube is secured between said top end cell and said bottom end cell , said top end cell being secured to rotatable upper fastening means on a stand by diametrically opposed engaging means of the top end cell, the corresponding diameter representing an horizontal axis, wherein said method comprises, in that order, the steps of: a) releasing the column tube from the top end cell ; b) lowering the bottom end cell together with the column tube ; c) rotating, in situ, the top end cell 180 degrees around said horizontal axis; and d) conducting maintenance to the top end cell . a) releasing the column tube from the top end cell ; b) lowering the bottom end cell together with the column tube ; c) rotating, in situ, the top end cell 180 degrees around said horizontal axis; and d) conducting maintenance to the top end cell .
A surgical device, comprising: a working end comprising a reciprocating element , wherein the working end performs a clamping function and a cutting function in response to movement of the reciprocating element ; and a computer processor operably coupled to the working end, to a first control input, and to a second control input, wherein, in an operational state, the computer processor is programmed to: command a movement of the reciprocating element through a first range of motion to perform at least the clamping function in response to a first command received from the first control input, and command a movement of the reciprocating element through a second range of motion to perform at least the cutting function in response to at least a second command received from the second control input, the second range of motion being different from the first range of motion. a working end comprising a reciprocating element , wherein the working end performs a clamping function and a cutting function in response to movement of the reciprocating element ; and a computer processor operably coupled to the working end, to a first control input, and to a second control input, wherein, in an operational state, the computer processor is programmed to: command a movement of the reciprocating element through a first range of motion to perform at least the clamping function in response to a first command received from the first control input, and command a movement of the reciprocating element through a second range of motion to perform at least the cutting function in response to at least a second command received from the second control input, the second range of motion being different from the first range of motion. command a movement of the reciprocating element through a first range of motion to perform at least the clamping function in response to a first command received from the first control input, and command a movement of the reciprocating element through a second range of motion to perform at least the cutting function in response to at least a second command received from the second control input, the second range of motion being different from the first range of motion.
An aircraft comprising an aircraft door interface , the aircraft door interface comprising: a structural component configured to provide rigidity to the aircraft , wherein the structural component at least partially borders an opening into an interior of the aircraft , and wherein the structural component comprises a concavity adjacent to the opening ; a door comprising a door frame and a window secured to the door frame , wherein at least a portion of the door frame comprises a complementary profile to the concavity , and wherein the complementary profile is configured to form a seal between the structural component and the overlapping door frame when the complementary profile is at least partially received within the concavity ; and a plurality of hinge supports disposed on the structural component and a plurality of hinges disposed on the door frame , wherein the hinge supports are configured to interface with the hinges to attach the door to the structural component while allowing the door to open outward. a structural component configured to provide rigidity to the aircraft , wherein the structural component at least partially borders an opening into an interior of the aircraft , and wherein the structural component comprises a concavity adjacent to the opening ; a door comprising a door frame and a window secured to the door frame , wherein at least a portion of the door frame comprises a complementary profile to the concavity , and wherein the complementary profile is configured to form a seal between the structural component and the overlapping door frame when the complementary profile is at least partially received within the concavity ; and a plurality of hinge supports disposed on the structural component and a plurality of hinges disposed on the door frame , wherein the hinge supports are configured to interface with the hinges to attach the door to the structural component while allowing the door to open outward.
A light emission device comprising a support having a central axis adapted to house a plurality of LED light emission devices arranged so as to direct the emitted light flow in a substantially radial direction with respect to said axis ; a lens comprising a first inlet surface , facing the LEDs and inclined with respect to said axis by an angle α comprised from 0° to 45°; a second internal reflection surface having a curvature with the concavity facing downwards and covered, at least in part, by a reflector ; a third outlet surface , substantially normal to said axis , adapted to emit the light flow exiting the lens , characterized in that the reflector and the lens are spaced apart from each other at least for a part of the extension thereof, so as to form a gap between said reflector and said lens . a support having a central axis adapted to house a plurality of LED light emission devices arranged so as to direct the emitted light flow in a substantially radial direction with respect to said axis ; a lens comprising a first inlet surface , facing the LEDs and inclined with respect to said axis by an angle α comprised from 0° to 45°; a second internal reflection surface having a curvature with the concavity facing downwards and covered, at least in part, by a reflector ; a third outlet surface , substantially normal to said axis , adapted to emit the light flow exiting the lens , characterized in that the reflector and the lens are spaced apart from each other at least for a part of the extension thereof, so as to form a gap between said reflector and said lens . a first inlet surface , facing the LEDs and inclined with respect to said axis by an angle α comprised from 0° to 45°; a second internal reflection surface having a curvature with the concavity facing downwards and covered, at least in part, by a reflector ; a third outlet surface , substantially normal to said axis , adapted to emit the light flow exiting the lens , characterized in that the reflector and the lens are spaced apart from each other at least for a part of the extension thereof, so as to form a gap between said reflector and said lens .