mhurhangee/ep-ind-claims huggingface dataset:
An electronic device for measuring the ambient temperature (T air) of the environment of the electronic device, the electronic device comprising: - at least one integrated infrared sensor, the electronic device comprising a cover, a blinded window preventing infrared radiation from the environment of the device to directly impinge on the at least one integrated infrared sensor, the blinded window being in thermal contact with the environment of the electronic device as well as with the cover of the electronic device resulting in the blinded window being at a surface temperature (T surface), the at least one integrated infrared sensor being adapted for sensing the temperature of the blinded window (T surface), - at least one absolute temperature sensor for measuring a temperature of the at least one infrared sensor (T sensor) itself, and characterized by processing means adapted to determine a temperature difference (ΔTc) between the sensed surface temperature (T surface) of the blinded window and the temperature of the infrared sensor (Tsensor) itself and to calculate based thereon the ambient temperature (T air). - at least one integrated infrared sensor, the electronic device comprising a cover, a blinded window preventing infrared radiation from the environment of the device to directly impinge on the at least one integrated infrared sensor, the blinded window being in thermal contact with the environment of the electronic device as well as with the cover of the electronic device resulting in the blinded window being at a surface temperature (T surface), the at least one integrated infrared sensor being adapted for sensing the temperature of the blinded window (T surface), - at least one absolute temperature sensor for measuring a temperature of the at least one infrared sensor (T sensor) itself, and
Computer-implemented method for measuring the sensitivity (2*) of an image classifier, which assigns an input image to one or more classes (3a-3c) of a given classification, to changes in the input image, including the following steps: • the input image is mapped by means of at least one given operator onto an intermediate image which, in comparison with the input image, has less informative content and/or a worse signal-to-noise ratio; • at least one generator is provided, said generator being trained to create realistic images which are assigned to a specific class (3a-3c) of the given classification by the image classifier; • a modification of the input image is generated from the intermediate image using this generator, wherein the specific class (3a-3c) to which the modification created by the generator belongs is a different class (3a-3c) than the class (3a-3c) to which the input image is assigned by the image classifier, and wherein • a comparison of one or more modifications with the input image and/or • a summarizing statistic regarding a plurality of modifications is/are used to evaluate the sensitivity (2*) of the image classifier to changes in the input image. • the input image is mapped by means of at least one given operator onto an intermediate image which, in comparison with the input image, has less informative content and/or a worse signal-to-noise ratio; • at least one generator is provided, said generator being trained to create realistic images which are assigned to a specific class (3a-3c) of the given classification by the image classifier; • a modification of the input image is generated from the intermediate image using this generator, wherein the specific class (3a-3c) to which the modification created by the generator belongs is a different class (3a-3c) than the class (3a-3c) to which the input image is assigned by the image classifier, and wherein • a comparison of one or more modifications with the input image and/or • a summarizing statistic regarding a plurality of modifications is/are used to evaluate the sensitivity (2*) of the image classifier to changes in the input image.
A user interface actuator for a pilot-by-wire system comprising a rotary electric motor having an output shaft (12; 3) suitable to be connected to a rotating user interface, a first angular sensor (10; 11) for detecting in direct drive the number of revolutions of the output shaft (12; 3), and a second angular sensor (11; 10), which is redundant with respect to the first angular sensor (10; 11), characterized in that first and second angular sensors (10, 11) are absolute angular sensors; by comprising a transmission having a non-unitary gear ratio and connected to the electric motor; in that the first angular sensor and the second angular sensor are connected to each other by means of the transmission and coupled according to said non-unitary gear ratio, the transmission being suitable to connect the electric motor to the rotating user interface in a rotational manner; in that the transmission comprises an endless flexible member; and by comprising an electronic control unit programmed to detect a deviation from said non-unitary gear ratio of first and second absolute angular sensor (10, 11) and generate a signal when said deviation is above a threshold.
A generator for generating energy from a moving fluid, the generator comprising a duct of walls that include two faceplates between which a diaphragm (5; 15) is placed so as to be subjected to the action of a stream of fluid penetrating between the two faceplates, the generator being characterized in that the two faceplates diverge so as to cause the diaphragm to deform under the action of a stream of fluid in the form of a traveling wave that moves from a leading edge of the diaphragm towards a trailing edge of the diaphragm so that the trailing edge of the diaphragm is driven with transverse oscillating motion, means (11, 12) for making use of said motion being coupled to said trailing edge.
A turbine engine airfoil comprising: an airfoil structure including an exterior surface providing a leading edge, multiple radially extending first cooling passages near the leading edge, each including a first portion and second portions, the first portion extending to the exterior surface and forming a radially extending trench (248;348) in the leading edge, the second portions in fluid communication with a second cooling passage being radially spaced arcuate legs, the radially extending trenches (248; 348) of the multiple first cooling passages being laterally spaced. an airfoil structure including an exterior surface providing a leading edge, multiple radially extending first cooling passages near the leading edge, each including a first portion and second portions, the first portion extending to the exterior surface and forming a radially extending trench (248;348) in the leading edge, the second portions in fluid communication with a second cooling passage being radially spaced arcuate legs, the radially extending trenches (248; 348) of the multiple first cooling passages being laterally spaced.
A method, comprising: accessing integrated imaging data compiled from multiple bone tissue reference components from multiple patients for modeling; utilizing a computing device to create a 3D printing file from the integrated imaging data, the 3D printing file defining parameters for printing a polymeric synthetic model compiled from the bone tissue reference components; adjusting the parameters of the 3D printing file according to experimentally derived datasets associated with anatomical, physiological, and biomechanical properties of the bone tissue reference components; and using a 3D printer in operable communication with the computing device to print at least a portion of the polymeric synthetic model using the parameters as adjusted. accessing integrated imaging data compiled from multiple bone tissue reference components from multiple patients for modeling; utilizing a computing device to create a 3D printing file from the integrated imaging data, the 3D printing file defining parameters for printing a polymeric synthetic model compiled from the bone tissue reference components; adjusting the parameters of the 3D printing file according to experimentally derived datasets associated with anatomical, physiological, and biomechanical properties of the bone tissue reference components; and using a 3D printer in operable communication with the computing device to print at least a portion of the polymeric synthetic model using the parameters as adjusted.
Dispersion for use in treating an infection or acne, the dispersion having a) a continuous phase, wherein said continuous phase is an aqueous liquid or gel and b) a dispersed phase made by dry mixing a submicron particle layered hydrous magnesium silicate clay, a submicron particle synthetic mica-montmorillonite clay, or mixtures thereof having electrically charged binding sites and a quaternary ammonium compound comprising a first hydrophobic moiety and an ionic moiety, wherein said ionic moiety is attracted to said electrically charged binding sites, hydrating said mixture and allowing to set.
A method comprising: projecting a light pattern towards a scene; capturing, by a base station, at least one image (332; 442) of the scene illuminated by the light pattern; receiving, at the base station, image-related data from a satellite device (110; 330; 440), the image-related data comprising data of the scene illuminated by the light pattern, the satellite device being in the illuminated scene; correlating an image of the at least one image (332; 442) with an image of the image-related data, or a depth map computed from the at least one image (332; 442) with a depth map computed from the image-related data, to determine pose information of the satellite device (110; 330; 440); computing a first set of depth data associated with the at least one image; and enhancing the first set of depth data based at least in part upon the image-related data and pose information of the satellite device (110; 330; 440). projecting a light pattern towards a scene; capturing, by a base station, at least one image (332; 442) of the scene illuminated by the light pattern; receiving, at the base station, image-related data from a satellite device (110; 330; 440), the image-related data comprising data of the scene illuminated by the light pattern, the satellite device being in the illuminated scene; correlating an image of the at least one image (332; 442) with an image of the image-related data, or a depth map computed from the at least one image (332; 442) with a depth map computed from the image-related data, to determine pose information of the satellite device (110; 330; 440); computing a first set of depth data associated with the at least one image; and enhancing the first set of depth data based at least in part upon the image-related data and pose information of the satellite device (110; 330; 440).
An apparatus, comprising: a sensor assembly comprising: a first pressure transducer in fluid communication with an upstream end of a rotor in a drilling motor, a second pressure transducer, and a rotational speed sensor coupled to the rotor, and a processor in signal communication with the first pressure transducer, the second pressure transducer and the rotational speed sensor; characterised in that the first pressure transducer, the second pressure transducer and the rotational speed sensor are disposed in a housing coupled to the upstream end of the rotor, and both the rotor and the housing comprise a through bore (220, 310) fluidly connecting the downstream side of the rotor to the second pressure transducer. a first pressure transducer in fluid communication with an upstream end of a rotor in a drilling motor, a second pressure transducer, and a rotational speed sensor coupled to the rotor, and a processor in signal communication with the first pressure transducer, the second pressure transducer and the rotational speed sensor; characterised in that the first pressure transducer, the second pressure transducer and the rotational speed sensor are disposed in a housing coupled to the upstream end of the rotor, and both the rotor and the housing comprise a through bore (220, 310) fluidly connecting the downstream side of the rotor to the second pressure transducer.
A control device for a belt type continuously variable transmission, comprising a primary pulley for receiving an input from a drive source, a secondary pulley for providing an output to a drive wheel, and a belt wound around the primary pulley and the secondary pulley, to control a gear ratio determined by a ratio of a diameter of the pulleys where the belt is wound around by controlling a primary hydraulic pressure to the primary pulley and a secondary hydraulic pressure to the secondary pulley, characterized in that the device further comprising: a belt slip control means configured to oscillate the secondary hydraulic pressure and monitor a phase difference between an oscillation component included in an actual secondary hydraulic pressure and an oscillation component included in an actual gear ratio to estimate a belt slip state, and control the actual secondary hydraulic pressure to decrease on the basis of the estimation to maintain a predetermined belt slip state; and an oscillation amplitude setting means configured to set an oscillation amplitude of the secondary hydraulic pressure small when the gear ratio is a high gear ratio compared with when the gear ratio is a low gear ratio, in a case of oscillating the secondary hydraulic pressure in the belt slip control. a belt slip control means configured to oscillate the secondary hydraulic pressure and monitor a phase difference between an oscillation component included in an actual secondary hydraulic pressure and an oscillation component included in an actual gear ratio to estimate a belt slip state, and control the actual secondary hydraulic pressure to decrease on the basis of the estimation to maintain a predetermined belt slip state; and an oscillation amplitude setting means configured to set an oscillation amplitude of the secondary hydraulic pressure small when the gear ratio is a high gear ratio compared with when the gear ratio is a low gear ratio, in a case of oscillating the secondary hydraulic pressure in the belt slip control.
A shovel comprising: a lower travelling body; an upper turning body pivotably attached to the lower traveling body; a camera attached to the upper turning body; and a processor configured to generate an output image including a camera image captured by the camera, characterised in that the processor is configured display an image representing an extending direction of a work target surface or a direction orthogonal to the extending direction and the camera image while superposing the image on the camera image. a lower travelling body; an upper turning body pivotably attached to the lower traveling body; a camera attached to the upper turning body; and a processor configured to generate an output image including a camera image captured by the camera, characterised in that the processor is configured display an image representing an extending direction of a work target surface or a direction orthogonal to the extending direction and the camera image while superposing the image on the camera image.
A structure for use in a high temperature environment, comprising: a substrate; and a thermal barrier coating (103, 203) disposed on the substrate comprising a base material and one or more reflective layers disposed in the base material; each reflective layer having a plurality of reflective particulates; the reflective particulates including a material that reflects wavelengths below 8 microns; the reflective particulates including TiO 2 particulates; characterized in that: the volume fraction of the reflective particulates is 2% to 5% of total volume of the thermal barrier coating (103, 203). a substrate; and a thermal barrier coating (103, 203) disposed on the substrate comprising a base material and one or more reflective layers disposed in the base material; each reflective layer having a plurality of reflective particulates; the reflective particulates including a material that reflects wavelengths below 8 microns; the reflective particulates including TiO 2 particulates; characterized in that: the volume fraction of the reflective particulates is 2% to 5% of total volume of the thermal barrier coating (103, 203).
Device for closing openings of buildings, comprising: a rail guide; a slide, which is formed for displaceably guiding a first sliding wall and which is formed horizontally displaceable along the rail guide; a tappet for horizontally force-transmitting entrainment of a second sliding wall, which is displaceable in parallel along the rail guide; and a retaining device for retaining the slide in a predetermined position along the rail guide, the tappet being formed as an actuation part, movable vertically relative to the slide, of the retaining device. a rail guide; a slide, which is formed for displaceably guiding a first sliding wall and which is formed horizontally displaceable along the rail guide; a tappet for horizontally force-transmitting entrainment of a second sliding wall, which is displaceable in parallel along the rail guide; and a retaining device for retaining the slide in a predetermined position along the rail guide, the tappet being formed as an actuation part, movable vertically relative to the slide, of the retaining device.
A deployment handle assembly for a stent graft delivery device comprising: a tubular handle having a proximal end and a distal end and a lumen extending longitudinally therebetween; a cannula (110,710) having a proximal end and a distal end, and wherein at least a portion of the distal end of cannula (110,710) extends longitudinally through handle lumen; a stent graft carried on the proximal end of the cannula (110,710); a torsion mechanism at the distal end of the cannula (110,710), the torsion mechanism configured to impart axial rotation of the cannula (110,710) relative to the handle caused by tension previously maintained in the torsion mechanism; an actuation mechanism positioned at the distal end of the handle, the actuation mechanism having a first position in which the actuation mechanism is engaged with cannula (110,710) to prevent axial rotation of the cannula (110,710) and a second position in which the actuation mechanism is disengaged from cannula (110,710) to permit axial rotation of the cannula (110,710) relative to the handle; wherein axial rotation of the cannula (110,710) permits release of at least a portion of the stent graft from the delivery device. a tubular handle having a proximal end and a distal end and a lumen extending longitudinally therebetween; a cannula (110,710) having a proximal end and a distal end, and wherein at least a portion of the distal end of cannula (110,710) extends longitudinally through handle lumen; a stent graft carried on the proximal end of the cannula (110,710); a torsion mechanism at the distal end of the cannula (110,710), the torsion mechanism configured to impart axial rotation of the cannula (110,710) relative to the handle caused by tension previously maintained in the torsion mechanism; an actuation mechanism positioned at the distal end of the handle, the actuation mechanism having a first position in which the actuation mechanism is engaged with cannula (110,710) to prevent axial rotation of the cannula (110,710) and a second position in which the actuation mechanism is disengaged from cannula (110,710) to permit axial rotation of the cannula (110,710) relative to the handle; wherein axial rotation of the cannula (110,710) permits release of at least a portion of the stent graft from the delivery device.
A process for the recovery of 1,4-butanediol from an aqueous stream, said process comprising the steps of providing the aqueous stream, providing a first solvent stream, combining said aqueous stream with said first solvent stream and recovering at least a portion of the 1,4-butanediol from the solvent of the first solvent stream by liquid-liquid extraction, wherein the first solvent is an amine or a combination of amines, or is an alcohol selected from n-butanol and n-pentanol.
A friction stir welding apparatus comprising: a friction stir welding tool that is held by an apparatus main body and welds a plurality of to-be-welded members to each other by friction stir; and a gradual cooling device that gradually cools a weld site of the to-be-welded members welded by the friction stir welding tool, being characterised in that: the apparatus main body includes a gradual cooling device welding direction movement driver that moves the gradual cooling device in a welding direction; wherein the gradual cooling device welding direction movement driver moves the gradual cooling device to change a distance from the gradual cooling device to the friction stir welding tool, so that the position of the gradual cooling device can be changed in the welding direction according to the movement speed of friction stir welding tool. a friction stir welding tool that is held by an apparatus main body and welds a plurality of to-be-welded members to each other by friction stir; and a gradual cooling device that gradually cools a weld site of the to-be-welded members welded by the friction stir welding tool, being characterised in that: the apparatus main body includes a gradual cooling device welding direction movement driver that moves the gradual cooling device in a welding direction; wherein the gradual cooling device welding direction movement driver moves the gradual cooling device to change a distance from the gradual cooling device to the friction stir welding tool, so that the position of the gradual cooling device can be changed in the welding direction according to the movement speed of friction stir welding tool. the apparatus main body includes a gradual cooling device welding direction movement driver that moves the gradual cooling device in a welding direction; wherein the gradual cooling device welding direction movement driver moves the gradual cooling device to change a distance from the gradual cooling device to the friction stir welding tool, so that the position of the gradual cooling device can be changed in the welding direction according to the movement speed of friction stir welding tool.