mhurhangee/patent-ind-claim-en huggingface dataset:
A computer vision system for an aircraft , comprising: a camera mounted to the aircraft and configured to output video frame data of a scene ahead of the aircraft; a processor in operable communication with the camera, the processor configured to execute program instructions, wherein the program instructions are configured to cause the processor to process the video frame data to: identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and output an indication of conformity with the go-around rules, characterized in that the program instructions are further configured to cause the at least one processor to: receive reference aircraft position data from a global positioning system of the aircraft; cross-check the aircraft position with the reference aircraft position data; and when the cross-check indicates a discrepancy beyond a threshold, outputting a warning and discontinuing determining whether the aircraft position deviation is in conformance with the go-around rules based on the video frame data. a camera mounted to the aircraft and configured to output video frame data of a scene ahead of the aircraft; a processor in operable communication with the camera, the processor configured to execute program instructions, wherein the program instructions are configured to cause the processor to process the video frame data to: identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and receive reference aircraft position data from a global positioning system of the aircraft; cross-check the aircraft position with the reference aircraft position data; and when the cross-check indicates a discrepancy beyond a threshold, outputting a warning and discontinuing determining whether the aircraft position deviation is in conformance with the go-around rules based on the video frame data.
An array, comprising: a solid support comprising a surface, the surface comprising a plurality of reaction cavities, the cavities being separated from each other by interstitial regions; a plurality of plasmonic nanostructures, wherein the plasmonic nanostructures comprise nanoparticles separated by a controlled spacing, wherein the plasmonic nanostructures form an ensamble amplifier positioned within each of the reaction cavity and configured to amplify at least one of the electromagnetic waves that propagates into the corresponding reaction cavity or amplify electromagnetic energy that is generated within the corresponding reaction cavity; a gel material forming a layer on the plurality of plasmonic nanostructures; and a primer nucleic acid attached to the gel material. a solid support comprising a surface, the surface comprising a plurality of reaction cavities, the cavities being separated from each other by interstitial regions; a plurality of plasmonic nanostructures, wherein the plasmonic nanostructures comprise nanoparticles separated by a controlled spacing, wherein the plasmonic nanostructures form an ensamble amplifier positioned within each of the reaction cavity and configured to amplify at least one of the electromagnetic waves that propagates into the corresponding reaction cavity or amplify electromagnetic energy that is generated within the corresponding reaction cavity; a gel material forming a layer on the plurality of plasmonic nanostructures; and a primer nucleic acid attached to the gel material.
A storage box, comprising a foldable box main body , the bottom of which is provided with a substrate made of soft material, and further comprising a soleplate supporting the box main body, the soleplate being detachably disposed on the substrate , wherein the box main body consists of a front side plate , a right side plate , a rear side plate and a left side plate connected in turn by joints, the bottoms of the front side plate , the right side plate , the rear side plate and the left side plate being connected with the substrate to form a space for accommodating articles together, the box main body being also movably connected with at least a lug plate for resisting against the soleplate , said lug plate being movably connected with the rear side plate or front side plate in a foldable way, characterized in that all plates consist of two layers of paperboard spliced together, the substrate being connected to the front side plate , right side plate , rear side plate and left side plate into a clearance between the two layers of paperboard.
An optical connector including a plurality of light incidence/emission portions and a ferrule to house the plurality of light incidence/emission portions , and configured to perform optical connection to an optical connector on the other side, each of the plurality of light incidence/emission portions comprising: a waveguide member having a first optical axis (L1); and a GRIN lens including a second optical axis (L2), and having one end abutted against an end portion of the waveguide member and the other end provided with an incidence/emission plane , wherein the second optical axis (L2) is offset in parallel relative to the first optical axis (L1) at the end portion of the waveguide member , the incidence/emission plane is not orthogonal to an optical axis of an optical beam emitted from the incidence/emission plane , and also not orthogonal to an optical axis of an optical beam entering the incidence/emission plane , and the ferrule includes a guide portion to perform optical connection to the optical connector on the other side. a waveguide member having a first optical axis (L1); and a GRIN lens including a second optical axis (L2), and having one end abutted against an end portion of the waveguide member and the other end provided with an incidence/emission plane , wherein the second optical axis (L2) is offset in parallel relative to the first optical axis (L1) at the end portion of the waveguide member , the incidence/emission plane is not orthogonal to an optical axis of an optical beam emitted from the incidence/emission plane , and also not orthogonal to an optical axis of an optical beam entering the incidence/emission plane , and the ferrule includes a guide portion to perform optical connection to the optical connector on the other side.
Method for identifying workpieces (20, 20a-20e), a production machine producing a large number of workpieces (20, 20a-20e) and the produced workpieces (20, 20a-20e) being distributed in a sorted manner to a plurality of workpiece collecting units (17a-17e), the produced workpieces (20, 20a-20e) being taken to the workpiece collecting units (17a-17e) by means of an automation device , and identification elements (24, 24a-24e) being arranged on the workpiece collecting units (17a-17e), which identification elements each directly and/or indirectly carry information regarding the workpieces (20, 20a-20e) on the workpiece collecting units (17a-17e), characterized in that the identification elements (24, 24a-24e) provided by a provision device , which identification elements each directly and/or indirectly carry information regarding the workpieces (20, 20a-20e) on the workpiece collecting units (17a-17e), are taken from the location of the provision device to a transfer zone in the working region of the automation device by means of a conveying device , and in that the automation device takes each provided identification element (24, 24a-24e) from the transfer zone to the associated workpiece collecting unit (17a-17e).
A method for metalizing a polymer substrate, comprising: providing a polymer substrate having a base polymer and at least one metal compound dispersed in the base polymer, the base polymer comprising a polymer having an ester and/or amide group in a backbone, the metal compound represented by any of formulas (Cu a M 1 1-a ) 3 (PO 4 ) 2 , (Cu b M 2 1-b ) 2 (OH)PO 4 , and (Cu c M 3 1-c ) 2 P 2 O 7 , where M 1 comprises at least one element selected from group IIA of periodic table of elements, 0<a≤1; M 2 comprises at least one element selected from group IIA of periodic table of elements, 0<b≤1; and M 3 comprises at least one element selected from group IIA of periodic table of elements, 0<c≤1; irradiating a surface of the polymer substrate with an energy beam such that a water contact angle of the surface of the polymer substrate is at least 120°; and performing chemical plating on the surface of the polymer substrate. providing a polymer substrate having a base polymer and at least one metal compound dispersed in the base polymer, the base polymer comprising a polymer having an ester and/or amide group in a backbone, the metal compound represented by any of formulas (Cu a M 1 1-a ) 3 (PO 4 ) 2 , (Cu b M 2 1-b ) 2 (OH)PO 4 , and (Cu c M 3 1-c ) 2 P 2 O 7 , where M 1 comprises at least one element selected from group IIA of periodic table of elements, 0<a≤1; M 2 comprises at least one element selected from group IIA of periodic table of elements, 0<b≤1; and M 3 comprises at least one element selected from group IIA of periodic table of elements, 0<c≤1; irradiating a surface of the polymer substrate with an energy beam such that a water contact angle of the surface of the polymer substrate is at least 120°; and performing chemical plating on the surface of the polymer substrate.
A fiber optic connector comprising: a connector body disposed about an optical fiber having an end face; a shutter pivotally mounted at a front end of the connector body , the shutter being pivotally moveable relative to the connector body between an open position and a closed position, the shutter covering the end face of the optical fiber when disposed in the closed position; and a cleaning material disposed at an inner side of the shutter , the cleaning material including a gel, the cleaning material being configured to contact the end face of the optical fiber when the shutter is disposed in the closed position, the gel being sufficiently soft that an optical fiber can penetrate into the gel, the end face of the optical fiber being embedded in the cleaning material after penetration when the shutter has moved to the closed position. a connector body disposed about an optical fiber having an end face; a shutter pivotally mounted at a front end of the connector body , the shutter being pivotally moveable relative to the connector body between an open position and a closed position, the shutter covering the end face of the optical fiber when disposed in the closed position; and a cleaning material disposed at an inner side of the shutter , the cleaning material including a gel, the cleaning material being configured to contact the end face of the optical fiber when the shutter is disposed in the closed position, the gel being sufficiently soft that an optical fiber can penetrate into the gel, the end face of the optical fiber being embedded in the cleaning material after penetration when the shutter has moved to the closed position.
A flame retardant polymer comprising phosphorus-containing repeating units of general formula I , wherein the variables A, B, X, m and n are defined as follows: A is a polymer group comprising or consisting of the following repeating units according to general formula II where R 1 is hydrogen (H) or an alkyl group R 2 is an alkyl or aryl group Z is O, NH n is an integer ≥ 1; B is a grouping according to general formula III where Y is O, S R 3 is a linear or branched alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl or aryloxy group and R 4 is a linear or branched alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl or aryloxy group, wherein R 3 and R 4 can also be linked to form a cyclic system; m is an integer ≥ 1; X is a (n + m)-valent phosphoric grouping. A is a polymer group comprising or consisting of the following repeating units according to general formula II R 1 is hydrogen (H) or an alkyl group R 2 is an alkyl or aryl group Z is O, NH n is an integer ≥ 1; B is a grouping according to general formula III Y is O, S R 3 is a linear or branched alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl or aryloxy group and R 4 is a linear or branched alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl or aryloxy group, m is an integer ≥ 1; X is a (n + m)-valent phosphoric grouping.
Method for producing a photo-emitting and/or photo-receiving device with a metal optical separation grid , comprising at least: - producing at least one photo-emitting and/or photo-receiving component , wherein at least one first metal electrode of the photo-emitting and/or photo-receiving component covers lateral flanks of at least one semiconductor stack of the photo-emitting and/or photo-receiving component and extends to at least one emitting and/or receiving face of the photo-emitting and/or photo-receiving component ; - treating at least one face of the first metal electrode located at the emitting and/or receiving face , rendering wettable said face of the first metal electrode ; - producing of the metal optical separation grid on at least one support ; - fastening of the metal optical separation grid against said face of the first metal electrode by brazing; - removing the support . - producing at least one photo-emitting and/or photo-receiving component , wherein at least one first metal electrode of the photo-emitting and/or photo-receiving component covers lateral flanks of at least one semiconductor stack of the photo-emitting and/or photo-receiving component and extends to at least one emitting and/or receiving face of the photo-emitting and/or photo-receiving component ; - treating at least one face of the first metal electrode located at the emitting and/or receiving face , rendering wettable said face of the first metal electrode ; - producing of the metal optical separation grid on at least one support ; - fastening of the metal optical separation grid against said face of the first metal electrode by brazing; - removing the support .
A method for wireless communication, comprising: transmitting , by a terminal to a network node, a first message comprising a first preamble sequence associated with a first index; and transmitting , to the network node a second message comprising a second preamble sequence associated with a second index, wherein the first index is from a first half of a set of indexes, wherein the second index is from a second half of the set of indexes, and wherein the first index and the second index are determined to have a constraint relationship, wherein the constraint relationship comprises a difference between the first index and the second index being equal to a fixed value, wherein the first half of the set of indexes comprises { 0, 1, ..., 2 N-1 - 1 }, wherein the second half of the set of indexes comprises { 2 N-1 , 2 N-1 + 1, ..., 2 N - 1 }, and the fixed value is 2 N-1 , N being a positive integer, wherein the terminal conveys a first value of an information bit by transmitting the first and second messages over a first resource and a second resource, respectively, and conveys a second value of the information bit by transmitting the first and second messages over the second resource and the first resource, respectively. transmitting , by a terminal to a network node, a first message comprising a first preamble sequence associated with a first index; and transmitting , to the network node a second message comprising a second preamble sequence associated with a second index, wherein the first index is from a first half of a set of indexes, wherein the second index is from a second half of the set of indexes, and wherein the first index and the second index are determined to have a constraint relationship, wherein the constraint relationship comprises a difference between the first index and the second index being equal to a fixed value, wherein the first half of the set of indexes comprises { 0, 1, ..., 2 N-1 - 1 }, wherein the second half of the set of indexes comprises { 2 N-1 , 2 N-1 + 1, ..., 2 N - 1 }, and the fixed value is 2 N-1 , N being a positive integer, wherein the terminal conveys a first value of an information bit by transmitting the first and second messages over a first resource and a second resource, respectively, and conveys a second value of the information bit by transmitting the first and second messages over the second resource and the first resource, respectively.
Triangulation device for measuring a measurement object by a projection of a structured light pattern onto the measurement object , the triangulation device comprising • a projector configured to project the structured light pattern with projection light, the projection light comprising at least one wavelength λ, onto the measurement object , the structured light pattern being decomposable into different spatial frequencies, the projector comprising □ a matrix of pixel elements , wherein an artifact pattern is defined by artifact regions between neighboring pixel elements, and □ a lens system, wherein the lens system is arranged so that the projection light passing through the lens system defines a wavefront with a wavefront aberration from a spherical reference wavefront, and • a camera , the camera comprising a lens system and an imaging sensor , wherein the camera is configured to receive the structured light pattern projected by the projector onto the measurement object , and • a processing unit configured to provide distance information by evaluating imaging information provided by the camera , characterized in that the wavefront aberration is defined by a primary spherical aberration coefficient Z 9 of a Zernike decomposition, wherein Zernike polynomials defining the Zernike decomposition are ordered according to the Fringe Zernike coefficient ordering, wherein the primary spherical aberration coefficient Z 9 is larger than one fourth of the wavelength λ. • a projector configured to project the structured light pattern with projection light, the projection light comprising at least one wavelength λ, onto the measurement object , the structured light pattern being decomposable into different spatial frequencies, the projector comprising □ a matrix of pixel elements , wherein an artifact pattern is defined by artifact regions between neighboring pixel elements, and □ a lens system, wherein the lens system is arranged so that the projection light passing through the lens system defines a wavefront with a wavefront aberration from a spherical reference wavefront, and □ a matrix of pixel elements , wherein an artifact pattern is defined by artifact regions between neighboring pixel elements, and □ a lens system, wherein the lens system is arranged so that the projection light passing through the lens system defines a wavefront with a wavefront aberration from a spherical reference wavefront, and • a camera , the camera comprising a lens system and an imaging sensor , wherein the camera is configured to receive the structured light pattern projected by the projector onto the measurement object , and • a processing unit configured to provide distance information by evaluating imaging information provided by the camera ,
An elongated member handling system , comprising: one or more elongated members , each elongated member comprising a first end and a second end and a connector formed on or mechanically linked to the first end of each of the one or more elongated members , wherein each connector optionally comprises a cover coupled thereto; a pulling assembly at least partially disposed about the one or more elongated members and adjacent the first end of each of the one or more elongated members , the pulling assembly moveably or fixedly coupled to an outer surface of each of the one or more elongated members , wherein the pulling assembly comprises a support skid configured to contact a surface upon which the pulling assembly is moved, and wherein the pulling assembly or, if present, the optional cover comprises a primary pulling anchor ; a first jumper winch configured to be mechanically linked to the primary pulling anchor , wherein, when the first jumper winch is mechanically linked to the primary pulling anchor , the first jumper winch is configured to pull the pulling assembly from a first structure to a second structure ; and a second jumper winch configured to be mechanically linked to the second end of at least one of the one or more elongated members , wherein, when the second jumper winch is mechanically linked to the second end of the at least one of the one or more elongated members , the second jumper winch is configured to apply a tension to the second end of the at least one of the one or more elongated members . one or more elongated members , each elongated member comprising a first end and a second end and a connector formed on or mechanically linked to the first end of each of the one or more elongated members , wherein each connector optionally comprises a cover coupled thereto; a pulling assembly at least partially disposed about the one or more elongated members and adjacent the first end of each of the one or more elongated members , the pulling assembly moveably or fixedly coupled to an outer surface of each of the one or more elongated members , wherein the pulling assembly comprises a support skid configured to contact a surface upon which the pulling assembly is moved, and wherein the pulling assembly or, if present, the optional cover comprises a primary pulling anchor ; a first jumper winch configured to be mechanically linked to the primary pulling anchor , wherein, when the first jumper winch is mechanically linked to the primary pulling anchor , the first jumper winch is configured to pull the pulling assembly from a first structure to a second structure ; and a second jumper winch configured to be mechanically linked to the second end of at least one of the one or more elongated members , wherein, when the second jumper winch is mechanically linked to the second end of the at least one of the one or more elongated members , the second jumper winch is configured to apply a tension to the second end of the at least one of the one or more elongated members .