mhurhangee/ep-ind-claims huggingface dataset:
A method of deburring a ball, comprising: providing a first abrasive (462, 562, 1262, 1362, 1500) formed of a material capable of abrading a burr (201, 222, 228, 248, 250) and removing it from an outer surface of a ball; connecting the first abrasive (462, 562, 1262, 1362, 1500) to an adjustment structure (470, 1408) capable of controlling the relative position of the first abrasive (462, 562, 1262, 1362, 1500) and the ball characterized in that the method further comprises: providing an electric controller capable of calculating an appropriate position (490, 690, 790, 890, 990, 1290, 1390) of the first abrasive (462, 562, 1262, 1362, 1500); calculating an appropriate deburring position (490, 690, 790, 890, 990, 1290, 1390) of the first abrasive (462, 562, 1262, 1362, 1500); moving the first abrasive (462, 562, 1262, 1362, 1500) to the appropriate deburring position (490, 690, 790, 890, 990, 1290, 1390); and abrading a burr (201, 222, 228, 248, 250) and removing it from an outer surface of said ball by the means of said abrasive (462, 562, 1262, 1362, 1500). providing a first abrasive (462, 562, 1262, 1362, 1500) formed of a material capable of abrading a burr (201, 222, 228, 248, 250) and removing it from an outer surface of a ball; connecting the first abrasive (462, 562, 1262, 1362, 1500) to an adjustment structure (470, 1408) capable of controlling the relative position of the first abrasive (462, 562, 1262, 1362, 1500) and the ball characterized in that the method further comprises: providing an electric controller capable of calculating an appropriate position (490, 690, 790, 890, 990, 1290, 1390) of the first abrasive (462, 562, 1262, 1362, 1500); calculating an appropriate deburring position (490, 690, 790, 890, 990, 1290, 1390) of the first abrasive (462, 562, 1262, 1362, 1500); moving the first abrasive (462, 562, 1262, 1362, 1500) to the appropriate deburring position (490, 690, 790, 890, 990, 1290, 1390); and abrading a burr (201, 222, 228, 248, 250) and removing it from an outer surface of said ball by the means of said abrasive (462, 562, 1262, 1362, 1500).
A medical robotic system having an entry guide, an articulatable camera instrument extending out of the entry guide, the articulatable camera instrument having mechanical elements used for positioning and orienting a camera tip of the articulatable camera instrument, a display screen (140, 104), and an input device (108, 109), the medical robotic system further comprising: a controller configured to determine positions of the mechanical elements, determine a position and orientation of the camera tip using the determined positions of the mechanical elements, generate a view of a computer model of the articulatable camera instrument corresponding to a perspective of a virtual camera, display the view on the display screen (140, 104), and control the positioning and orienting of the camera tip by moving the mechanical elements in response to manipulation of the input device (108, 109) such that movement of the input device (108, 109) in a Cartesian reference frame associated with the input device (108, 109) results in corresponding scaled movement of the camera tip relative to a reference frame associated with the virtual camera so that the positioning and orienting of the camera tip appears intuitively to an operator who is manipulating the input device (108, 109) while viewing the display screen (140, 104) to correspond to the displayed view of the computer model of the articulatable camera instrument wherein the reference frame associated with the virtual camera is defined as a Cartesian reference frame having an origin at the position of the virtual camera and oriented such that one axis of the reference frame intersects a focal point on a longitudinal axis extending between proximal and distal ends of the entry guide. a controller configured to determine positions of the mechanical elements, determine a position and orientation of the camera tip using the determined positions of the mechanical elements, generate a view of a computer model of the articulatable camera instrument corresponding to a perspective of a virtual camera, display the view on the display screen (140, 104), and control the positioning and orienting of the camera tip by moving the mechanical elements in response to manipulation of the input device (108, 109) such that movement of the input device (108, 109) in a Cartesian reference frame associated with the input device (108, 109) results in corresponding scaled movement of the camera tip relative to a reference frame associated with the virtual camera so that the positioning and orienting of the camera tip appears intuitively to an operator who is manipulating the input device (108, 109) while viewing the display screen (140, 104) to correspond to the displayed view of the computer model of the articulatable camera instrument wherein the reference frame associated with the virtual camera is defined as a Cartesian reference frame having an origin at the position of the virtual camera and oriented such that one axis of the reference frame intersects a focal point on a longitudinal axis extending between proximal and distal ends of the entry guide.
A hollow blade comprising: a metallic article having a first major surface disposed opposite a second major surface, an internal cavity with an opening in the first major surface, and a socket around the opening; a cover of composite material received in the socket and covering the opening; and a filler material of foam in the internal cavity and characterized by the cover comprising: an inner composite cover; and an outer composite cover, and wherein the inner composite cover is bonded to the outer composite cover. a metallic article having a first major surface disposed opposite a second major surface, an internal cavity with an opening in the first major surface, and a socket around the opening; a cover of composite material received in the socket and covering the opening; and a filler material of foam in the internal cavity and characterized by the cover comprising: an inner composite cover; and an outer composite cover, and wherein the inner composite cover is bonded to the outer composite cover. an inner composite cover; and an outer composite cover, and wherein the inner composite cover is bonded to the outer composite cover.
A multilayer film comprising at least three layers, two outer layers and a core layer, each outer layer independently comprising an LLDPE and an LDPE component and said core layer comprising a multimodal polyethylene component having a lower molecular weight component and a higher molecular weight component, said multimodal polyethylene having a density of 915 to 940 kg/m 3 wherein the density of the higher molecular weight component is less than 915 kg/m 3 and the MFR 2 (measured according to ISO 1133 at 190 °C at a load of 2.16 kg) of the higher molecular weight component is less than 1 g/10 min.
A method of preparing a compound of Formula II, wherein each of R 4, R 5, and R 6 is independently selected from hydrogen and halogen; and wherein at least one of R 4, R 5, and R 6 is hydrogen, the method comprising I) forming a mixture comprising A) a compound of Formula I, wherein each of R 1, R 2, and R 3 is independently a halogen; and wherein the compound of Formula I is prepared according to a method comprising i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; B) optionally a dehalogenation reagent; C) a reducing agent; and D) a solvent; and II) reacting the mixture. wherein each of R 4, R 5, and R 6 is independently selected from hydrogen and halogen; and wherein at least one of R 4, R 5, and R 6 is hydrogen, the method comprising I) forming a mixture comprising A) a compound of Formula I, wherein each of R 1, R 2, and R 3 is independently a halogen; and wherein the compound of Formula I is prepared according to a method comprising i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; B) optionally a dehalogenation reagent; C) a reducing agent; and D) a solvent; and II) reacting the mixture. I) forming a mixture comprising A) a compound of Formula I, wherein each of R 1, R 2, and R 3 is independently a halogen; and wherein the compound of Formula I is prepared according to a method comprising i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; B) optionally a dehalogenation reagent; C) a reducing agent; and D) a solvent; and A) a compound of Formula I, wherein each of R 1, R 2, and R 3 is independently a halogen; and wherein the compound of Formula I is prepared according to a method comprising i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; wherein each of R 1, R 2, and R 3 is independently a halogen; and wherein the compound of Formula I is prepared according to a method comprising i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; i) forming a mixture comprising a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and a) pyrazole or a pyrazole derivative; b) a halogenation reagent; c) water; d) optionally a solvent; and e) optionally an inorganic base; and ii) reacting the mixture; B) optionally a dehalogenation reagent; C) a reducing agent; and D) a solvent; and II) reacting the mixture.
An optical element mounted in a holder, wherein the optical element is a protective glass, a mirror, or a lens for a laser machining head or for a plug of a fiber optic cable, characterized in that, a side of the optical element is covered, at least partially, in particular completely, by a protective film, in particular a polyester film that is adhesively attached, via at least one adhesion surface, to an end face of the holder, said end face surrounding the optical element, and that the protective film comprises a lateral overhang for handling the optical element and for pulling off the protective film from the holder, and that the side of the protective film facing the optical element is non-adhering at least in the region covering the optical element, and that the end face of the holder protrudes vertically above the covered side of the optical element such that contact of the protective film with the optical element is prevented.
Sensor for detecting a physical variable, comprising: - a sensor element for detecting an electrical signal that is dependent on the physical variable, - a substrate having a conductor track and carrying the sensor element, - an output interface for outputting the electrical signal to a superordinate device, and - a component for leading the electrical signal from the conductor track of the substrate to the output interface, comprising: - a circuit having at least one first signal path for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface and a second signal path, different from the first signal path, for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface, - wherein, depending on a position of the component in the sensor, the first signal path or the second signal path electrically contact-connects the sensor element to the output interface, wherein the circuit is encapsulated in an embedding compound, - pin areas via which the signal paths are exposed to the outside from the embedding compound in order to make contact with the sensor element and the output interface. - a sensor element for detecting an electrical signal that is dependent on the physical variable, - a substrate having a conductor track and carrying the sensor element, - an output interface for outputting the electrical signal to a superordinate device, and - a component for leading the electrical signal from the conductor track of the substrate to the output interface, comprising: - a circuit having at least one first signal path for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface and a second signal path, different from the first signal path, for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface, - wherein, depending on a position of the component in the sensor, the first signal path or the second signal path electrically contact-connects the sensor element to the output interface, wherein the circuit is encapsulated in an embedding compound, - pin areas via which the signal paths are exposed to the outside from the embedding compound in order to make contact with the sensor element and the output interface. - a circuit having at least one first signal path for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface and a second signal path, different from the first signal path, for receiving the electrical signal from the sensor element and for leading the electrical signal to the output interface, - wherein, depending on a position of the component in the sensor, the first signal path or the second signal path electrically contact-connects the sensor element to the output interface, wherein the circuit is encapsulated in an embedding compound, - pin areas via which the signal paths are exposed to the outside from the embedding compound in order to make contact with the sensor element and the output interface.
An image processing method comprising: acquiring a plurality of viewpoint images; generating a contrast distribution from the plurality of viewpoint images; and generating an output image by performing image processing in accordance with the contrast distribution with respect to an image based on the plurality of viewpoint images, wherein the image processing is processing for sharpening, processing for smoothing, or a combined processing thereof, the method further comprising: generating, from the plurality of viewpoint images, an image shift amount distribution indicating distribution of an image shift amount between the viewpoint images or a defocus amount distribution indicating distribution of a defocus amount of an object in the viewpoint images, wherein the image processing is performed based on the image shift amount distribution and the contrast distribution, or based on the defocus amount distribution and the contrast distribution. acquiring a plurality of viewpoint images; generating a contrast distribution from the plurality of viewpoint images; and generating an output image by performing image processing in accordance with the contrast distribution with respect to an image based on the plurality of viewpoint images, wherein the image processing is processing for sharpening, processing for smoothing, or a combined processing thereof, the method further comprising: generating, from the plurality of viewpoint images, an image shift amount distribution indicating distribution of an image shift amount between the viewpoint images or a defocus amount distribution indicating distribution of a defocus amount of an object in the viewpoint images, wherein the image processing is performed based on the image shift amount distribution and the contrast distribution, or based on the defocus amount distribution and the contrast distribution.
Method for producing three-dimensional objects layer by layer using a powdery material which can be solidified by irradiating it with an electron beam, wherein the method comprises the steps of: - introducing a supplementary gas into the vacuum chamber of the equipment, - controlling the pressure of the gas to a predefined level, said supplementary gas being capable of producing a predefined number of ions when irradiated by the electron beam, the predefined number of ions being above a level required to keep the electrical field strength below a predetermined level, wherein the pressure in the vacuum chamber is in the interval between 1 x 10 -1 mbar and 1 x 10 -4 mbar after the supplementary gas is introduced. - introducing a supplementary gas into the vacuum chamber of the equipment, - controlling the pressure of the gas to a predefined level, said supplementary gas being capable of producing a predefined number of ions when irradiated by the electron beam, the predefined number of ions being above a level required to keep the electrical field strength below a predetermined level, wherein the pressure in the vacuum chamber is in the interval between 1 x 10 -1 mbar and 1 x 10 -4 mbar after the supplementary gas is introduced.
A device for protecting an electrical facility comprising an electrically insulating body defining an inner housing, the protection device comprising a first connecting element and a second connecting element intended to connect the protection device to the electrical facility and comprising, within the inner housing: - a first electrical circuit portion linked to the first connecting element and a second electrical circuit portion linked to the second connecting element; - a varistor comprising a first terminal linked electrically to the first electrical circuit portion and a second terminal; - a system for disconnecting the varistor comprising a connecting element arranged to electrically link the second terminal of the varistor to the second electrical circuit portion, the connecting element comprising a movable part capable of occupying a contact position in which the connecting element is electrically linked to the second terminal of the varistor, and an open position in which the connecting element is electrically insulated from the second terminal of the varistor; - a disconnecting indicator; the disconnecting indicator being secured in movement to the movable part of the connecting element, and the disconnecting indicator and the insulating body being arranged to have a first configuration, which corresponds to the contact position of the movable part of the connecting element, and a second configuration, which corresponds to the open position of the movable part of the connecting element, the relative positioning of the disconnecting indicator with respect to the insulating body in the first configuration being visually distinct from the outside of the insulating body from the relative positioning of the disconnecting indicator with respect to the insulating body in the second configuration, the protection device comprising an electrically insulating mounting portion, the mounting portion comprising a housing for receiving the connecting element and secured in movement to the connecting element, characterized in that the mounting portion is deformable. - a first electrical circuit portion linked to the first connecting element and a second electrical circuit portion linked to the second connecting element; - a varistor comprising a first terminal linked electrically to the first electrical circuit portion and a second terminal; - a system for disconnecting the varistor comprising a connecting element arranged to electrically link the second terminal of the varistor to the second electrical circuit portion, the connecting element comprising a movable part capable of occupying a contact position in which the connecting element is electrically linked to the second terminal of the varistor, and an open position in which the connecting element is electrically insulated from the second terminal of the varistor; - a disconnecting indicator;
A sample analyzing apparatus for performing an optical-based measurement on a biological sample supported by a multi-well microplate (106, 306), the sample analyzing apparatus comprising: a housing; a first light source disposed in the housing and configured for generating excitation light; excitation optics disposed in the housing and configured for directing the excitation light from the first light source to the biological sample placed in an operating position, wherein the biological sample emits emission light in response to being irradiated by the excitation light; a first light detector disposed in the housing and configured for measuring the emission light; and emission optics disposed in the housing and configured for directing the emission light from the biological sample to the first light detector; characterized by a monitoring system configured for monitoring inside said housing a movable component (104; 210, 214; 218; 180) disposed in the interior of the housing and movable towards and away from the biological sample in its operating position, the monitoring system comprising: a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated. a housing; a first light source disposed in the housing and configured for generating excitation light; excitation optics disposed in the housing and configured for directing the excitation light from the first light source to the biological sample placed in an operating position, wherein the biological sample emits emission light in response to being irradiated by the excitation light; a first light detector disposed in the housing and configured for measuring the emission light; and emission optics disposed in the housing and configured for directing the emission light from the biological sample to the first light detector; characterized by a monitoring system configured for monitoring inside said housing a movable component (104; 210, 214; 218; 180) disposed in the interior of the housing and movable towards and away from the biological sample in its operating position, the monitoring system comprising: a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated. a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated.