mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural distribution system , for distributing liquid and/or solid agricultural distribution materials on a crop , preferably for a field sprayer or a fertiliser spreader, comprising - a distribution boom , comprising a plurality of distribution elements arranged thereon and connected and/or connectable to a storage container for at least one agricultural distribution material, and - a detection device configured to detect development stages of the crop stand , and - a data processing device , wherein the data processing device is configured to adjust an application amount of agricultural distribution materials of individual, grouped or all distribution elements according to the development stages, wherein the crop stand comprises crop plants and accompanying vegetation , characterised in that the detection device and/or the data processing device is configured to detect a quantity proportion of the accompanying vegetation relative to the crop plants and in that the data processing device is configured for this purpose, to adjust an application amount of agricultural distribution materials of individual, grouped or all distribution elements to the quantity proportion of the accompanying vegetation in such a way that a minimum quantity of accompanying vegetation is preserved. - a distribution boom , comprising a plurality of distribution elements arranged thereon and connected and/or connectable to a storage container for at least one agricultural distribution material, and - a detection device configured to detect development stages of the crop stand , and - a data processing device , wherein the data processing device is configured to adjust an application amount of agricultural distribution materials of individual, grouped or all distribution elements according to the development stages,
A slider for use with a ram air parachute, the slider having a generally rectangular body having corner grommets through which, in use with the ram air parachute, suspension lines of the parachute pass, the body having a long axis and a short axis , the long axis , when used with the ram air parachute, being generally parallel with a longitudinal span of the ram air parachute canopy when fully inflated, characterized in that the body has a plurality of retaining structures for securing a plurality of stiffening elements extending in a fore/aft direction across the short axis , and a plurality of stiffening elements are secured to said body by said plurality of retaining structures including channels extending across the short axis of the slider body , said stiffening elements including flexible rods inserted within said channels that keep the slider spread open across said short axis when the ram air parachute is fully inflated to prevent folding and flapping of the slider . the body has a plurality of retaining structures for securing a plurality of stiffening elements extending in a fore/aft direction across the short axis , and a plurality of stiffening elements are secured to said body by said plurality of retaining structures including channels extending across the short axis of the slider body , said stiffening elements including flexible rods inserted within said channels that keep the slider spread open across said short axis when the ram air parachute is fully inflated to prevent folding and flapping of the slider .
A device for obtaining a First Order Ambisonic, FOA, signal from signals of at least five first-order directive microphones comprised by the device, the device being configured to: determine a look direction of each microphone , calculate a decoding matrix based on the determined look directions , wherein the decoding matrix is suitable for decoding a FOA signal into the signals of the microphones , invert the decoding matrix to obtain an encoding matrix , and encode the signals of the microphones based on the encoding matrix to obtain the FOA signal . determine a look direction of each microphone , calculate a decoding matrix based on the determined look directions , wherein the decoding matrix is suitable for decoding a FOA signal into the signals of the microphones , invert the decoding matrix to obtain an encoding matrix , and encode the signals of the microphones based on the encoding matrix to obtain the FOA signal .
Method of assembling a tubular electrical actuator for driving, about an axis of rotation (X-X'), a winding tube of a screen for closing, solar protection or projection, this actuator comprising at least: - an electric motor , - a reducer driven by the electric motor, - a unit for controlling the electric motor, - a head for interface with a structure forming a support and - a tube , of circular section, for receiving the electric motor , the reducer , the control unit and the interface head in a configuration where an output shaft of the reducer extends beyond a first end of the tube and where the interface head extends beyond a second end of this tube opposite the first end, characterised in that this method comprises steps consisting of: a) providing, on the periphery of a first end of the reducer turned towards its output shaft , at least one first relief such that this end is not of circular section; b) forming, outside the tube, an assembly (E) comprising, in this order, at least the reducer , the motor , the control unit and at least one part of the interface head , by making integral in rotation each of the elements of this assembly with each adjacent element; c) introducing (F0), in the tube and through its second end , the assembly (E) formed in step c), beginning with the reducer , until the output shaft of the reducer extends from the first end of the tube; d) making integral in rotation the reducer and the tube via a second relief , provided at the level of the first end of the tube and such that this end is not of circular section, so that the second relief engages with the first relief . - an electric motor , - a reducer driven by the electric motor, - a unit for controlling the electric motor, - a head for interface with a structure forming a support and - a tube , of circular section, for receiving the electric motor , the reducer , the control unit and the interface head in a configuration where an output shaft of the reducer extends beyond a first end of the tube and where the interface head extends beyond a second end of this tube opposite the first end, a) providing, on the periphery of a first end of the reducer turned towards its output shaft , at least one first relief such that this end is not of circular section; b) forming, outside the tube, an assembly (E) comprising, in this order, at least the reducer , the motor , the control unit and at least one part of the interface head , by making integral in rotation each of the elements of this assembly with each adjacent element; c) introducing (F0), in the tube and through its second end , the assembly (E) formed in step c), beginning with the reducer , until the output shaft of the reducer extends from the first end of the tube; d) making integral in rotation the reducer and the tube via a second relief , provided at the level of the first end of the tube and such that this end is not of circular section, so that the second relief engages with the first relief .
A crystalline polyester resin (A) containing polycarboxylic acid components and polyhydric alcohol components as copolymerizing components, characterized in that a copolymerizing rate of a 2,6-naphthalenedicarboxylic acid component is from 40 to 100 molar % when a total of the polycarboxylic acid components in the crystalline polyester resin (A) is taken as 100 molar %, that a 1,4-butanediol component is copolymerized as a polyhydric alcohol component, and that a copolymerizing rate of the 1,4-butanediol component is 40 molar % or less when a total of the polyhydric alcohol components is taken as 100 molar %, and wherein a melting point of the crystal is from 100°C to 180°C, measured by a differential scanning calorimeter.
An encoding method for a multi-channel audio signal encoding, the method being performed by an audio encoder and comprising: obtaining a plurality of audio signal channels; and coordinating a selection of an encoding mode for the plurality of the obtained channels, wherein the coordination is based on an encoding mode selected for one of the obtained channels, and wherein the coordination is selectively activated. obtaining a plurality of audio signal channels; and coordinating a selection of an encoding mode for the plurality of the obtained channels, wherein the coordination is based on an encoding mode selected for one of the obtained channels, and wherein the coordination is selectively activated.
A method of forming a pleated filter media pack (16; 312; 448; 826) with a filter media sheet (12; 812), comprising: pleating the filter media sheet to provide a plurality of pleat panels (70, 72; 324, 326; 450, 470; 870, 872); and welding a plurality of seams (342, 344; 602; 820) into a plurality of adjacent pairs of the pleat panels to form a plurality of pocket pleats (328; 604); wherein the pleated filter media pack comprises a plurality of upstream pleat tips at an upstream face (198, 200; 304; 472) and a plurality of downstream pleat tips at a downstream face (198, 200; 306; 474) with the pleat panels extending between the upstream pleat tips and the downstream pleat tips, each of the pleat panels extending transversely between first and second opposed side edges (78, 80; 813) of the pleat panels, wherein said welding integrally bonds the first and second opposed side edges at spaced apart locations; and wherein said welding comprises ultrasonically welding with an ultrasonic press that forms the pocket pleats therebetween, the ultrasonic press comprising an anvil and a sonotrode , with a welding rib projection (822; 842; 888) being provided along the anvil , wherein the sonotrode comprises a flat cooperating surface that is free of sonic tooling projections and faces the welding rib projection (822; 843; 888) of the anvil . pleating the filter media sheet to provide a plurality of pleat panels (70, 72; 324, 326; 450, 470; 870, 872); and welding a plurality of seams (342, 344; 602; 820) into a plurality of adjacent pairs of the pleat panels to form a plurality of pocket pleats (328; 604); wherein the pleated filter media pack comprises a plurality of upstream pleat tips at an upstream face (198, 200; 304; 472) and a plurality of downstream pleat tips at a downstream face (198, 200; 306; 474) with the pleat panels extending between the upstream pleat tips and the downstream pleat tips, each of the pleat panels extending transversely between first and second opposed side edges (78, 80; 813) of the pleat panels, wherein said welding integrally bonds the first and second opposed side edges at spaced apart locations; and wherein said welding comprises ultrasonically welding with an ultrasonic press that forms the pocket pleats therebetween, the ultrasonic press comprising an anvil and a sonotrode , with a welding rib projection (822; 842; 888) being provided along the anvil , wherein the sonotrode comprises a flat cooperating surface that is free of sonic tooling projections and faces the welding rib projection (822; 843; 888) of the anvil .
An annular heat exchanger comprising of at least two circumferentially enclosed tube profiles arranged inside each other for media flow and having a thermal conductive structure arranged inside, characterized in that the thermal conductive structure comprises a helically tightly wound pair of bands lying on each other, the first band being smooth, the other band being corrugated transversally to the winding direction to create flow channels .
A conformal integrated circuit, IC, device comprising a flexible printed circuit board assembly, FPCBA, comprising electronic circuitry attached to a flexible printed circuit board, FPCB, with a flexible substrate ; and a flexible multi-part encapsulation housing encasing therein the electronic circuitry and the flexible substrate, the multi-part encapsulation housing including a first molded, flexible encapsulation housing component attached by adhesive to a second molded, flexible encapsulation housing component , the first flexible encapsulation housing component having at least one first prefabricated recessed pocket region seating therein at least some of the electronic circuitry and the flexible substrate , and the second flexible encapsulation housing component having at least one second prefabricated recessed pocket region seating therein at least a portion of the flexible substrate and at least some of the electronic circuitry; wherein the FPCBA is attached to each of the first and second flexible encapsulation housing components by adhesive. a flexible printed circuit board assembly, FPCBA, comprising electronic circuitry attached to a flexible printed circuit board, FPCB, with a flexible substrate ; and a flexible multi-part encapsulation housing encasing therein the electronic circuitry and the flexible substrate, the multi-part encapsulation housing including a first molded, flexible encapsulation housing component attached by adhesive to a second molded, flexible encapsulation housing component , the first flexible encapsulation housing component having at least one first prefabricated recessed pocket region seating therein at least some of the electronic circuitry and the flexible substrate , and the second flexible encapsulation housing component having at least one second prefabricated recessed pocket region seating therein at least a portion of the flexible substrate and at least some of the electronic circuitry; wherein the FPCBA is attached to each of the first and second flexible encapsulation housing components by adhesive.
A phase controller comprising: a plurality of pulse width modulation - hereafter abbreviated 'PWM' - circuits configured to output a plurality of pulse signals; a plurality of switching devices , each coupled to a corresponding one of the plurality of PWM circuits, configured to switch on and off to provide output signals based on the pulse signals; a computing unit configured to calculate a duty ratio of each pulse signal of the plurality of pulse signals to be output from the plurality of PWM circuits, based on the output signals of the plurality of switching devices; and a latency generator configured to calculate a latency for at least one pulse signal of the plurality of pulse signals and provide the latency in one or more delayable units to the at least one pulse signal of the plurality of pulse signals such that no edge positions of the plurality of pulse signals output from the plurality of PWM circuits collide with each other, wherein the plurality of pulse signals change values at the edge positions, wherein the latency generator is configured to generate a table for each of the plurality of pulse signals, and wherein each table is configured to indicate positions of changing state of a corresponding pulse signal. a plurality of pulse width modulation - hereafter abbreviated 'PWM' - circuits configured to output a plurality of pulse signals; a plurality of switching devices , each coupled to a corresponding one of the plurality of PWM circuits, configured to switch on and off to provide output signals based on the pulse signals; a computing unit configured to calculate a duty ratio of each pulse signal of the plurality of pulse signals to be output from the plurality of PWM circuits, based on the output signals of the plurality of switching devices; and a latency generator configured to calculate a latency for at least one pulse signal of the plurality of pulse signals and provide the latency in one or more delayable units to the at least one pulse signal of the plurality of pulse signals such that no edge positions of the plurality of pulse signals output from the plurality of PWM circuits collide with each other, wherein the plurality of pulse signals change values at the edge positions, wherein the latency generator is configured to generate a table for each of the plurality of pulse signals, and wherein each table is configured to indicate positions of changing state of a corresponding pulse signal.
A method for detecting safe and malicious data objects, comprising: selecting , by a processor, one or more data blocks in an object for malware analysis by searching for the one or more data blocks using a trained analysis model; performing , by the processor, a static analysis of the selected one or more data blocks to determine a set of features of said data blocks, wherein the set of features comprises a coefficient of harmfulness for each data block of the one or more data blocks; determining , by the processor, a degree of harmfulness of the object based on the set of features comprising the coefficient of harmfulness for each data block of the one or more data blocks and a detection model for detection of malicious objects, wherein the model has been trained by a method for machine learning on at least one safe object and one malicious object; recognizing , by the processor, the object is safe when the degree of harmfulness does not exceed a predetermined threshold of harmfulness; recognizing , by the processor, the object is malicious when the degree of harmfulness of the one or more data blocks exceeds the predetermined threshold of harmfulness; retraining the analysis model if the object is recognized as malicious. selecting , by a processor, one or more data blocks in an object for malware analysis by searching for the one or more data blocks using a trained analysis model; performing , by the processor, a static analysis of the selected one or more data blocks to determine a set of features of said data blocks, wherein the set of features comprises a coefficient of harmfulness for each data block of the one or more data blocks; determining , by the processor, a degree of harmfulness of the object based on the set of features comprising the coefficient of harmfulness for each data block of the one or more data blocks and a detection model for detection of malicious objects, wherein the model has been trained by a method for machine learning on at least one safe object and one malicious object; recognizing , by the processor, the object is safe when the degree of harmfulness does not exceed a predetermined threshold of harmfulness; recognizing , by the processor, the object is malicious when the degree of harmfulness of the one or more data blocks exceeds the predetermined threshold of harmfulness; retraining the analysis model if the object is recognized as malicious.
An electric distributed propulsion system , the system comprising: two or more motors (611a-d) controlled by speed; an input control connected to the two or more motors (61 1a-d) to provide control to the two or more motors (61 1a-d) to produce a desired net thrust; and a logic connected to the input control and the two or more motors (611a-d), the logic for controlling the two or more motors (61 1a-d) with different rotational speeds to achieve the desired net thrust and to avoid a motor speed condition, characterized in that the motor speed condition is a speed dead band of the two or more motors (611a-d), wherein the logic is configured to adjust the speed and rotational direction of the motors based on the input control to achieve a desired net thrust from the propulsion system while maintaining the speed of each of the motors (611a-d) outside of the speed dead band . two or more motors (611a-d) controlled by speed; an input control connected to the two or more motors (61 1a-d) to provide control to the two or more motors (61 1a-d) to produce a desired net thrust; and a logic connected to the input control and the two or more motors (611a-d), the logic for controlling the two or more motors (61 1a-d) with different rotational speeds to achieve the desired net thrust and to avoid a motor speed condition, characterized in that the motor speed condition is a speed dead band of the two or more motors (611a-d), wherein the logic is configured to adjust the speed and rotational direction of the motors based on the input control to achieve a desired net thrust from the propulsion system while maintaining the speed of each of the motors (611a-d) outside of the speed dead band .
Trolley comprising a platform , a drawbar , a first and a second pair of movable wheels and a pair of fixed wheels , each wheel being configured to pivot about a transverse axis, each movable wheel further being configured to pivot, relative to the platform , about an elevation axis (A4) substantially perpendicular to the transverse axis, the drawbar being rotatable relative to the platform between a raised position and a lowered position in which the drawbar is configured to be fixed to a vehicle or to another trolley , a height (h1, h2, h3) being defined for each pair of wheels as being the distance between the platform and the point of the wheel that is furthest away from the platform , the pair of fixed wheels being interposed, along a longitudinal axis (X) of the trolley , between the two pairs of movable wheels , the trolley being characterised in that the first pair of movable wheels is movable along the elevation axis (Z) between a top position in which the two pairs of movable wheels and the pair of fixed wheels have substantially identical heights (h1, h2, h3), and a bottom position in which the height (h2) of the first pair is strictly greater than the height (h1) of the pair of fixed wheels , and in that the trolley comprises a locking mechanism which is configured to hold the first pair in the bottom position when the drawbar is in its raised position.
A device for self-assembling semiconductor light-emitting diodes, comprising: an assembly chamber having a space for accommodating a liquid with semiconductor light-emitting diodes dispersed therein; a substrate chuck having a substrate support part configured to support a substrate (S), a vertical moving part configured to move at least a part of the substrate support part and/or a substrate supported by the substrate support part in a vertical direction, an electrode connection part provided on the substrate support part for applying power to an assembly electrode of the substrate; a displacement sensor configured for sensing a degree of warping of the substrate due to gravity; and a controller configured to control movement of the substrate chuck , wherein the controller is configured to control a depth at which the substrate is submerged in the liquid based on a degree of the warping of the substrate based on a sensing result of the displacement sensor . an assembly chamber having a space for accommodating a liquid with semiconductor light-emitting diodes dispersed therein; a substrate chuck having a substrate support part configured to support a substrate (S), a vertical moving part configured to move at least a part of the substrate support part and/or a substrate supported by the substrate support part in a vertical direction, an electrode connection part provided on the substrate support part for applying power to an assembly electrode of the substrate; a displacement sensor configured for sensing a degree of warping of the substrate due to gravity; and a controller configured to control movement of the substrate chuck , wherein the controller is configured to control a depth at which the substrate is submerged in the liquid based on a degree of the warping of the substrate based on a sensing result of the displacement sensor .