mhurhangee/ep-ind-claims huggingface dataset:
Protective helmet, characterised in that it comprises a plurality of peripheral segments (100, 101, 102, 103, 104, 105; 130, 131, 132, 133, 134, 135, 136) interconnected in pairs by hinge connections or sliding connections, and a central segment (106, 107; 137) connected to a first of said peripheral segments by a pivot connection and to at least one of said second peripheral segments by a locking device, said hinge connections connecting in pairs the peripheral segments having their axis of rotation substantially tangent to the surface of said segments, said helmet being configured so that: - when it is locked, said locking device maintains the helmet in a deployed position; - when it is unlocked, the locking device makes it possible to displace said peripheral segments in such a way as to convey them to said first peripheral segment, and to fold back the central segment towards said peripheral segments displaced as such in such a way as to pass from the deployed position of the helmet to a folded position wherein the helmet has a reduced encumbrance. - when it is locked, said locking device maintains the helmet in a deployed position; - when it is unlocked, the locking device makes it possible to displace said peripheral segments in such a way as to convey them to said first peripheral segment, and to fold back the central segment towards said peripheral segments displaced as such in such a way as to pass from the deployed position of the helmet to a folded position wherein the helmet has a reduced encumbrance.
A hose comprising an inner tube, a reinforcement layer disposed outwardly from the inner tube, and a cover layer disposed outwardly from the reinforcement layer, characterized in that the cover layer and/or the inner tube comprise(s) a cured composition having a sustainable content and formed from a mixture comprising EPDM and/or EPR sustainable polymer and a sulfur or peroxide based curing system, wherein the EPDM and/or EPR sustainable polymer comprises ethylene monomer derived from one or more renewable sources.
A method comprising: a) determining, by a data processor, that a malicious computer uses a machine learning model with a boundary function for classification of input data in order to determine outcomes; b) generating, by the data processor, normal data, wherein the normal data includes typical input data corresponding to the type of machine learning model; c) providing, by the data processor, the normal data to the malicious computer; d) obtaining, by the data processor, classification data from the malicious computer, wherein the malicious computer uses the machine learning model to generate the classification data based on the normal data; e) determining, by the data processor, based on the classification data, characteristics of the machine learning model of the malicious computer; f) generating, by the data processor, based on the characteristics of the machine learning model of the malicious computer, transition data to be used as an input to the machine learning model and intended to shift the boundary function; g) providing, by the data processor to the malicious computer, the transition data; and h) repeating, by the data processor, steps f) and g), thereby causing the boundary function to shift over time. a) determining, by a data processor, that a malicious computer uses a machine learning model with a boundary function for classification of input data in order to determine outcomes; b) generating, by the data processor, normal data, wherein the normal data includes typical input data corresponding to the type of machine learning model; c) providing, by the data processor, the normal data to the malicious computer; d) obtaining, by the data processor, classification data from the malicious computer, wherein the malicious computer uses the machine learning model to generate the classification data based on the normal data; e) determining, by the data processor, based on the classification data, characteristics of the machine learning model of the malicious computer; f) generating, by the data processor, based on the characteristics of the machine learning model of the malicious computer, transition data to be used as an input to the machine learning model and intended to shift the boundary function; g) providing, by the data processor to the malicious computer, the transition data; and h) repeating, by the data processor, steps f) and g), thereby causing the boundary function to shift over time.
A dosage form comprising: a. a first portion comprising a pain reliever selected from the group consisting of acetaminophen, ibuprofen, ketoprofen, diclofenac, aspirin, naproxen, pharmaceutically acceptable salts thereof, and combinations thereof, wherein the first portion is an immediate release portion; b. a second portion comprising pseudoephedrine and/or a pharmaceutically acceptable salt thereof and dextromethorphan and/or a pharmaceutically acceptable salt thereof; from 0.001% to 10% of a chelating agent, by weight of the dosage form; and a hydrophilic polymer; wherein the second portion is an extended release portion; and wherein the dosage form comprises a ratio of pseudoephedrine or a pharmaceutically acceptable salt thereof to hydrophilic polymer of from 0.10 to 3.0, on a weight basis, and wherein the dosage form comprises less than about 0.01% by weight of the dosage form of methcathinone and less than about 0.5%, by weight of the dosage form of 10-keto-dextromethorphan a. a first portion comprising a pain reliever selected from the group consisting of acetaminophen, ibuprofen, ketoprofen, diclofenac, aspirin, naproxen, pharmaceutically acceptable salts thereof, and combinations thereof, wherein the first portion is an immediate release portion; b. a second portion comprising pseudoephedrine and/or a pharmaceutically acceptable salt thereof and dextromethorphan and/or a pharmaceutically acceptable salt thereof; from 0.001% to 10% of a chelating agent, by weight of the dosage form; and a hydrophilic polymer; wherein the second portion is an extended release portion; and wherein the dosage form comprises a ratio of pseudoephedrine or a pharmaceutically acceptable salt thereof to hydrophilic polymer of from 0.10 to 3.0, on a weight basis, and wherein the dosage form comprises less than about 0.01% by weight of the dosage form of methcathinone and less than about 0.5%, by weight of the dosage form of 10-keto-dextromethorphan
A computer implemented method for maintaining spatial stability of a sound field comprising: calculating balance gains for each of two or more microphone signals; calculating one or more signal values for each of the two or more microphone signals; detecting structured noise content for each of the two or more microphone signals; mixing a first microphone signal of the two or more microphone signals with a second microphone signal of the two or more microphone signals dependent on the detected structured noise; and gain adjusting the two or more microphone signals, including the mixed first microphone signal and second microphone signal, in dependence of the calculated balance gains and the one or more signal values for each of the two or more microphone signals where the one or more signal values is a background noise estimate or signal gains associated with an echo cancellation or noise reduction processes.; and where the structured noise is an impulse noise or a tonal noise. calculating balance gains for each of two or more microphone signals; calculating one or more signal values for each of the two or more microphone signals; detecting structured noise content for each of the two or more microphone signals; mixing a first microphone signal of the two or more microphone signals with a second microphone signal of the two or more microphone signals dependent on the detected structured noise; and gain adjusting the two or more microphone signals, including the mixed first microphone signal and second microphone signal, in dependence of the calculated balance gains and the one or more signal values for each of the two or more microphone signals where the one or more signal values is a background noise estimate or signal gains associated with an echo cancellation or noise reduction processes.; and where the structured noise is an impulse noise or a tonal noise.
A method of operating a propulsion system for an aircraft having a fuselage and an aft end, the propulsion system comprising: a propulsion engine configured to be mounted to the aircraft, the propulsion engine defining a central axis and comprising: an electric machine; and a fan rotatable about the central axis of the propulsion engine with the electric machine,; the method comprising: operating the electric machine to define an electric machine tip speed during operation of the propulsion engine; operating the fan to define a fan pressure ratio (R FP) and comprising a plurality of fan blades, each fan blade defining a fan blade tip speed during operation of the propulsion engine, the propulsion engine defining a ratio of fan blade tip speed to electric machine tip speed; wherein the method comprises operating the propulsion engine such that the ratio of fan blade tip speed to electric machine tip speed is within twenty percent of the following equation: 1.68 × R FP - 0.518. an electric machine; and a fan rotatable about the central axis of the propulsion engine with the electric machine,; the method comprising: operating the electric machine to define an electric machine tip speed during operation of the propulsion engine; operating the fan to define a fan pressure ratio (R FP) and comprising a plurality of fan blades, each fan blade defining a fan blade tip speed during operation of the propulsion engine, the propulsion engine defining a ratio of fan blade tip speed to electric machine tip speed; wherein the method comprises operating the propulsion engine such that the ratio of fan blade tip speed to electric machine tip speed is within twenty percent of the following equation: 1.68 × R FP - 0.518. operating the electric machine to define an electric machine tip speed during operation of the propulsion engine; operating the fan to define a fan pressure ratio (R FP) and comprising a plurality of fan blades, each fan blade defining a fan blade tip speed during operation of the propulsion engine, the propulsion engine defining a ratio of fan blade tip speed to electric machine tip speed; wherein the method comprises operating the propulsion engine such that the ratio of fan blade tip speed to electric machine tip speed is within twenty percent of the following equation: 1.68 × R FP - 0.518.
Fixing system which is configured for fixing a vehicle in at least two different processing plants for performing different processing methods for the vehicle, wherein the fixing system has at least one fixing module, wherein a respective fixing module of the at least one fixing module is to be arranged in a component of a bodywork of the vehicle, wherein the respective fixing module is configured in the component to releasably fix the bodywork in a first processing plant for performing a first processing method and in at least one second processing plant for performing at least one second processing method, wherein the at least one fixing module is configured to be rotationally symmetrical and funnel-shaped, wherein the fixing system has a plurality of funnel-shaped rotating parts, wherein a respective rotating part is to be temporarily inserted into the at least one fixing module of the at least one component, wherein a respective rotating part is configured as an adapter for fixing the vehicle in one of the respective processing plants.
A secondary reflector of a parabolic antenna, comprising - a first end having a junction with a first radius a w, adapted for coupling to the end of a waveguide, - a second end, having a second radius ρ 0 larger than the first radius a w, - an internal reflective convex surface placed on the second end having an axis of revolution X-X', - an external surface of the same axis, connecting the two ends (3, 5), - a dielectric body extending between the first and second end and bounded by the internal surface and the external surface, characterized in that the external surface of the secondary reflector has a profile described by an equation of the form: ρ z = a + ρ 0 − a ω 1 − A z + L L + A sin 2 π z + L 2 L wherein A is a numerical constant different from zero, a w is the first radius of the first end of the secondary reflector, ρ 0 is the second radius of the second end of the secondary reflector, L is the total height of the secondary reflector, z is the considered height of the secondary reflector, and ρ (z) is the radius of a section placed at the height z of the secondary reflector. and in that the external surface of the secondary reflector comprises a plurality of annular reliefs surrounding the dielectric body, the line connecting the external surfaces of the reliefs and the lines connecting the bases of the reliefs being described by an equation of the same form as the one describing the external surface of the secondary reflector. - a first end having a junction with a first radius a w, adapted for coupling to the end of a waveguide, - a second end, having a second radius ρ 0 larger than the first radius a w, - an internal reflective convex surface placed on the second end having an axis of revolution X-X', - an external surface of the same axis, connecting the two ends (3, 5), - a dielectric body extending between the first and second end and bounded by the internal surface and the external surface, A is a numerical constant different from zero, a w is the first radius of the first end of the secondary reflector, ρ 0 is the second radius of the second end of the secondary reflector, L is the total height of the secondary reflector, z is the considered height of the secondary reflector, and ρ (z) is the radius of a section placed at the height z of the secondary reflector.
An integrated optical transducer for measuring displacement of a diaphragm, the optical transducer comprising the diaphragm, a lens element and a substrate body having a waveguide structure and a coupling element, wherein - the diaphragm is arranged distant from the substrate body; - the diaphragm is arranged parallel or substantially parallel to a main extension plane of the substrate body; - the waveguide structure is configured to guide light from a light source to the coupling element; - the coupling element is configured to couple at least part of the light from the waveguide structure onto a light path between the coupling element and the diaphragm and to couple light reflected by a surface of the diaphragm from the light path into the waveguide structure; - the waveguide structure is further configured to guide light from the coupling element to a photodetector; and - the lens element is arranged on the light path such that light on the light path passes through the lens element. - the diaphragm is arranged distant from the substrate body; - the diaphragm is arranged parallel or substantially parallel to a main extension plane of the substrate body; - the waveguide structure is configured to guide light from a light source to the coupling element; - the coupling element is configured to couple at least part of the light from the waveguide structure onto a light path between the coupling element and the diaphragm and to couple light reflected by a surface of the diaphragm from the light path into the waveguide structure; - the waveguide structure is further configured to guide light from the coupling element to a photodetector; and - the lens element is arranged on the light path such that light on the light path passes through the lens element.
A method for processing eye fundus images, comprising the steps of: displaying at least one of two images (82, 83) of a fundus of the same eye being examined that are captured and recorded with a left and right parallax; extracting from the displayed image a portion having a luminance exceeding a preset threshold value; specifying on the basis of the extracted portion of the image an image-clipping area whose image is to be enlarged; automatically clipping from one of the recorded images of the fundus of the same eye an image in the specified image clipping area and clipping from the other recorded image thereof an image in an area that corresponds to the area of the clipped image; processing the two clipped images (82b, 83b) for enlargement at the same magnification; and displaying the two enlarged clipped images (82b, 83b) in a left-right alignment for stereoscopic viewing. displaying at least one of two images (82, 83) of a fundus of the same eye being examined that are captured and recorded with a left and right parallax; extracting from the displayed image a portion having a luminance exceeding a preset threshold value; specifying on the basis of the extracted portion of the image an image-clipping area whose image is to be enlarged; automatically clipping from one of the recorded images of the fundus of the same eye an image in the specified image clipping area and clipping from the other recorded image thereof an image in an area that corresponds to the area of the clipped image; processing the two clipped images (82b, 83b) for enlargement at the same magnification; and displaying the two enlarged clipped images (82b, 83b) in a left-right alignment for stereoscopic viewing.
A wood fibre insulating board for external insulation, consisting of at least two layers glued together, characterised in that the wood fibre insulating board has at least one cover layer which in the installed state faces outwards, and at least one further lower layer which is joined to the cover layer, the layers (2, 3) each having a thickness of 10 to 30 mm and the at least one cover layer having a density of > 170 kg/m 3 to 280 kg/m 3, and the at least one further lower layer having a density of > 120 kg/m 3 to 200 kg/m 3, with the proviso that the at least one cover layer has a higher density than the at least one lower layer, with the at least one cover layer and/or the at least one lower layer having been produced substantially without binder by means of the wet method.
A mobile communication method in a mobile communication system capable of performing uplink carrier aggregation using frequency carriers of different bands, the method comprising the steps of: transmitting simultaneous transmission capability information from a mobile station to a radio base station, the simultaneous transmission capability information indicating whether or not the mobile station can guarantee predetermined communication quality in transmission of uplink data signals via a plurality of carriers in a same sub-frame while performing the uplink carrier aggregation; and performing scheduling for the mobile station by the radio base station on the basis of the simultaneous transmission capability information such that, when the mobile station cannot guarantee predetermined communication quality in transmission of uplink data signals via multiple carriers in the same subframe, the mobile station will not transmit uplink data signals via multiple carriers in the same subframe while performing uplink carrier aggregation. transmitting simultaneous transmission capability information from a mobile station to a radio base station, the simultaneous transmission capability information indicating whether or not the mobile station can guarantee predetermined communication quality in transmission of uplink data signals via a plurality of carriers in a same sub-frame while performing the uplink carrier aggregation; and performing scheduling for the mobile station by the radio base station on the basis of the simultaneous transmission capability information such that, when the mobile station cannot guarantee predetermined communication quality in transmission of uplink data signals via multiple carriers in the same subframe, the mobile station will not transmit uplink data signals via multiple carriers in the same subframe while performing uplink carrier aggregation.
A touch panel, comprising: a touch sensor (500, 700, 800, 900, 1301, 1400), comprising: a touch surface (504a, 505a, 904a, 1404a, 1405a); a dielectric core layer (201, 301, 401); at least a first piezoelectric layer (202, 302, 402) and a second piezoelectric layer (203, 303, 403), the dielectric core layer disposed between the first and second piezoelectric layers, each piezoelectric layer comprising a poled piezoelectric polymer; at least a first set of individually addressable electrodes (502, 702, 902, 1402) disposed over the first piezoelectric layer; and at least one second electrode (503, 703, 903, 1403) disposed over the second piezoelectric layer; and circuitry coupled to the first set of electrodes and the second electrode, the circuitry configured to detect a change in an electrical signal of at least one electrode of the first set of electrodes referenced to the second electrode in response to a touch applied to the touch surface. a touch sensor (500, 700, 800, 900, 1301, 1400), comprising: a touch surface (504a, 505a, 904a, 1404a, 1405a); a dielectric core layer (201, 301, 401); at least a first piezoelectric layer (202, 302, 402) and a second piezoelectric layer (203, 303, 403), the dielectric core layer disposed between the first and second piezoelectric layers, each piezoelectric layer comprising a poled piezoelectric polymer; at least a first set of individually addressable electrodes (502, 702, 902, 1402) disposed over the first piezoelectric layer; and at least one second electrode (503, 703, 903, 1403) disposed over the second piezoelectric layer; and a touch surface (504a, 505a, 904a, 1404a, 1405a); a dielectric core layer (201, 301, 401); at least a first piezoelectric layer (202, 302, 402) and a second piezoelectric layer (203, 303, 403), the dielectric core layer disposed between the first and second piezoelectric layers, each piezoelectric layer comprising a poled piezoelectric polymer; at least a first set of individually addressable electrodes (502, 702, 902, 1402) disposed over the first piezoelectric layer; and at least one second electrode (503, 703, 903, 1403) disposed over the second piezoelectric layer; and circuitry coupled to the first set of electrodes and the second electrode, the circuitry configured to detect a change in an electrical signal of at least one electrode of the first set of electrodes referenced to the second electrode in response to a touch applied to the touch surface.
An active stationary vibration isolation system, comprising at least one isolator that is effective in the horizontal and vertical directions, said isolator comprising a pneumatic actuator effective in the horizontal direction and a pneumatic actuator effective in the vertical direction; wherein the pneumatic actuators (10, 11) are effective in two spatial directions, and wherein the pneumatic actuators (10, 11) are able to produce compensation forces in both the vertical and horizontal directions for actively reducing vibrations; characterized in that the isolator furthermore comprises a pneumatic spring which is effective at least in the vertical direction.