mhurhangee/ep-ind-claims huggingface dataset:
A radar-assisted optical tracking method, implemented within a mission system comprising an electro-optical camera which generates video images, detects movable objects, and tracks a target object, and a radar sensor which generates signals and detects blip, characterised in that it includes the following steps of: - Acquiring a video image provided by the electro-optical camera and blips provided by the radar sensor at the time instant of generation of the acquired video image; - Converting the geographic position of each acquired blip, expressed in a first reference frame associated with the radar sensor, into a geographic position expressed in a second reference frame associated with a pointing direction of the electro-optical camera at the time instant of generation of the video image; - Correcting the geographic position of each blip in the second reference frame, according to the characteristic features of the camera, in a manner such as to obtain a position of the blip in the video image. - Acquiring a video image provided by the electro-optical camera and blips provided by the radar sensor at the time instant of generation of the acquired video image; - Converting the geographic position of each acquired blip, expressed in a first reference frame associated with the radar sensor, into a geographic position expressed in a second reference frame associated with a pointing direction of the electro-optical camera at the time instant of generation of the video image; - Correcting the geographic position of each blip in the second reference frame, according to the characteristic features of the camera, in a manner such as to obtain a position of the blip in the video image.
A self-wrung flat mop, comprising a plate, a handle and a cleaning element located beneath the plate, characterized by: the self-wrung flat mop further includes a swivel member, an external ratchet, a sleeve,; the plate including a middle plate and two side plates that are hinged on two sides of the middle plate through two torsional springs respectively, the cleaning element including two ends connected respectively to outer ends of the two side plates, the swivel member including a lower end connected to the middle portion of the cleaning element and an upper end run through an opening formed in the middle portion of the middle plate to connect to the handle in a non-turnable manner; the external ratchet being fixedly coupled on the handle, the sleeve being coupled on the handle and including at least one upright slide groove formed on an inner surface thereof and an internal ratchet formed on the inner surface thereof to mate the external ratchet,
A touchscreen apparatus comprising: pixel rows (110, 120, 130, 140) including pixels configured to display an image; display gate lines, wherein the pixels in each pixel row are adapted to be driven to an activated state by a respective display gate line; a touch-sensing unit configured to sense a physical touch and a light-sensing unit configured to sense incident light, the touch-sensing unit and the light-sensing unit being between two adjacent pixel rows (110, 120) and configured to operate based on first and second sensor gate line signals; the first sensor gate line (SGLn) connected to the light-sensing unit and the touch-sensing unit and configured to provide the first sensor gate line signal for activating the light-sensing unit and resetting the touch-sensing unit; the second sensor gate (SGLn+1) line connected to both the light-sensing unit and the touch-sensing unit and configured to provide the second sensor gate line signal for activating the touch-sensing unit and resetting the light-sensing unit; and a reset circuit (RS, 170) configured to provide a common voltage to the pixels when the two adjacent pixel rows are in an activated state, and prohibit providing the common voltage to the pixels when the light-sensing unit or the touch-sensing unit is in an activated state. pixel rows (110, 120, 130, 140) including pixels configured to display an image; display gate lines, wherein the pixels in each pixel row are adapted to be driven to an activated state by a respective display gate line; a touch-sensing unit configured to sense a physical touch and a light-sensing unit configured to sense incident light, the touch-sensing unit and the light-sensing unit being between two adjacent pixel rows (110, 120) and configured to operate based on first and second sensor gate line signals; the first sensor gate line (SGLn) connected to the light-sensing unit and the touch-sensing unit and configured to provide the first sensor gate line signal for activating the light-sensing unit and resetting the touch-sensing unit; the second sensor gate (SGLn+1) line connected to both the light-sensing unit and the touch-sensing unit and configured to provide the second sensor gate line signal for activating the touch-sensing unit and resetting the light-sensing unit; and a reset circuit (RS, 170) configured to provide a common voltage to the pixels when the two adjacent pixel rows are in an activated state, and prohibit providing the common voltage to the pixels when the light-sensing unit or the touch-sensing unit is in an activated state.
Toy construction system for constructing and operating a remote controlled toy vehicle model, the system comprising: a plurality of modular toy elements (3, 4, 5, 6); a modular toy vehicle base detachably connectable with the modular toy elements (3, 4, 5, 6) by means of coupling members (23, 41, 42) so as to construct a toy vehicle model; and a remote control device adapted to control motorized functions in the modular toy vehicle base; wherein the modular toy vehicle base comprises an interaction sensor adapted to generate an interaction signal in response to a mechanical interaction with the toy vehicle model; wherein the toy construction system further comprises a processor with a signal analysis process, the signal analysis process being configured to perform an analysis of the interaction signal for indications of a building interaction according to pre-determined criteria, and based on the analysis to generate an output indicative of a building interaction status; characterized in that the interaction sensor is sensitive to the directional properties of the mechanical interaction and wherein the analysis of the interaction signal is performed with regard to pre-determined characteristics in a directional pattern in the interaction signal; and/or in that the interaction sensor is adapted to generate a signal comprising temporal information about the mechanical interaction, wherein the analysis of the interaction signal is performed with regard to pre-determined characteristics in a temporal pattern in the interaction signal. a plurality of modular toy elements (3, 4, 5, 6); a modular toy vehicle base detachably connectable with the modular toy elements (3, 4, 5, 6) by means of coupling members (23, 41, 42) so as to construct a toy vehicle model; and a remote control device adapted to control motorized functions in the modular toy vehicle base; wherein the modular toy vehicle base comprises an interaction sensor adapted to generate an interaction signal in response to a mechanical interaction with the toy vehicle model; wherein the toy construction system further comprises a processor with a signal analysis process, the signal analysis process being configured to perform an analysis of the interaction signal for indications of a building interaction according to pre-determined criteria, and based on the analysis to generate an output indicative of a building interaction status; characterized in that the interaction sensor is sensitive to the directional properties of the mechanical interaction and wherein the analysis of the interaction signal is performed with regard to pre-determined characteristics in a directional pattern in the interaction signal; and/or in that the interaction sensor is adapted to generate a signal comprising temporal information about the mechanical interaction, wherein the analysis of the interaction signal is performed with regard to pre-determined characteristics in a temporal pattern in the interaction signal.
An automated control system for multi-level authority to operate electric devices (6, 9), said system comprising one or more wireless or wired controlled electric devices configured to be protected by operation authorizing codes and one or more separate code transmitter for transmitting the operation authorizing code (7, 10) by a short range communication link to the electric device (6, 9) to be protected, the permission to operate electric devices or the control or delivery of the operation authorizing code proceeding automatically on the basis of the location of an authorized user or the device or the predetermined mutual relationship therebetween, characterized in that a level of operating authority or a setting of the electric device (6, 9) has been configured to change automatically without user's activity, - such that the operation authorizing code or setting of the electric device is adapted to be configured on the basis of location of the user's mobile phone within the ranges (14, 19) of various base stations (5, 15) in a mobile phone network and the level of operating authority is determined on the basis of the location of the user's mobile phone in relation to locations of various base stations (5, 15) relative to the place of use of the electric device (6,9), - or such that the presence of a user is adopted to be identified by means of the base station information of a mobile phone network and the short range communication link with means for short-range wireless communication, such as Bluetooth or Wlan, in such a way that the short range communication link is activated automatically once the user's mobile phone arrives within the range of a determined base station in a mobile phone network, the range of said determined base station covering the place of use of the electric device (6,9). - such that the operation authorizing code or setting of the electric device is adapted to be configured on the basis of location of the user's mobile phone within the ranges (14, 19) of various base stations (5, 15) in a mobile phone network and the level of operating authority is determined on the basis of the location of the user's mobile phone in relation to locations of various base stations (5, 15) relative to the place of use of the electric device (6,9), - or such that the presence of a user is adopted to be identified by means of the base station information of a mobile phone network and the short range communication link with means for short-range wireless communication, such as Bluetooth or Wlan, in such a way that the short range communication link is activated automatically once the user's mobile phone arrives within the range of a determined base station in a mobile phone network, the range of said determined base station covering the place of use of the electric device (6,9).
Rotary actuating drive for a rotary component, having a stator and two oppositely acting rotary actuators in the form of two string-like torsion elements (31,41) which are substantially coaxial with respect to a rotation axis, each having a clamping end (31a, 41a) that is fixed with respect to the stator, and a drive end (31b, 41b), the torsion elements (31, 41) consisting of a shape-memory alloy and, when heated, changing continuously from a first memorised shape into a second memorised shape, the drive end (31b, 41b) in each case rotating about the rotation axis relative to the clamping end (31a, 41a), and having two electrical heating means (21, 22), each associated with one of the two torsion elements (31, 41), for heating the two torsion elements (31,41) independently of one another, characterised in that the rotary actuating drive comprises a rotor which is rotatable about the rotation axis between a first and a second rotated position, said rotor being kinematically coupled to the drive ends (31b, 41b) of the two torsion elements (31, 41) such that as a result of the heating of one torsion element it is rotated in a first direction of rotation and as a result of the heating of the other torsion element it is rotated in a second, opposite, direction of rotation, and in that the rotary actuating drive comprises automatically acting, releasable, frictionally engaging rotation locking means (55, 56, 57, 58) which secure the rotor in its present position of rotation when the electrical heating means (21, 22) are not supplied with current, and which are releasable by means of the torsion elements (31, 41) when their associated heating means (21, 22) are supplied with current.
A method for manufacturing a display (400, 1600) element comprising a plurality of pixels, each pixel comprising a plurality of sub-pixels, each sub-pixel being configured to provide light of a given wavelength, the method comprising: undertaking, using a pick up tool, a first placement cycle comprising picking up a plurality of first, untested light-emitting diode dies (200, 300, 402), each first LED die comprising at least one first LED emitter configured to provide one of the plurality of sub-pixels of the display (400, 1600), and placing the first LED dies (200, 300, 402) on a display substrate at locations corresponding to the plurality of pixels of the display (400, 1600); testing the first LED emitters on the display substrate to determine one or more locations of non-functional first LED emitters; testing a plurality of second LED dies each comprising at least one second LED emitter configured to provide one of the plurality of sub-pixels of the display to determine the plurality of second LED dies as known good dies; from the plurality of second LED dies selecting one or more second LED dies based on a result of the test of the first LED emitters; configuring the selected one or more second LED dies to enable their pick up and placement on the display substrate; and undertaking, using the PUT, a second placement cycle comprising picking up the selected one or more second LED dies and placing the selected one or more second LED dies on the display substrate at the determined locations of the nonfunctional first LED emitters. undertaking, using a pick up tool, a first placement cycle comprising picking up a plurality of first, untested light-emitting diode dies (200, 300, 402), each first LED die comprising at least one first LED emitter configured to provide one of the plurality of sub-pixels of the display (400, 1600), and placing the first LED dies (200, 300, 402) on a display substrate at locations corresponding to the plurality of pixels of the display (400, 1600); testing the first LED emitters on the display substrate to determine one or more locations of non-functional first LED emitters; testing a plurality of second LED dies each comprising at least one second LED emitter configured to provide one of the plurality of sub-pixels of the display to determine the plurality of second LED dies as known good dies; from the plurality of second LED dies selecting one or more second LED dies based on a result of the test of the first LED emitters; configuring the selected one or more second LED dies to enable their pick up and placement on the display substrate; and undertaking, using the PUT, a second placement cycle comprising picking up the selected one or more second LED dies and placing the selected one or more second LED dies on the display substrate at the determined locations of the nonfunctional first LED emitters.
A micromanipulator arrangement; comprising - at least two drive stems arranged in a parallel manner, - a movable element (850, 854, 855, 856, 857, 860, 861) arranged on the drive stems to move along the drive stems, - the drive stems being arranged to cause a change in a position of the movable element with respect to the drive stem; and - a first micromanipulator element comprising said at least two drive stems and said movable element; wherein an additional factor of gravity exists having an effect on the homogeneity of the change of the position of the movable element between upward and downward directed movement, characterized in that the micromanipulator arrangement further comprises - means for compensating said additional factor of gravity such that said effect on said homogeneity is diminished, and - at least one force-generating part attached to said first micromanipulator element and arranged to interact with said first micromanipulator element such that the force-generating part can provide essentially constant compensation by mechanical means for the effect on said homogeneity of the change of position of said movable element caused by said additional factor of gravity, wherein the force-generating part is a spring that produces essentially constant force in its normal operating area regardless of the extension of the spring. - at least two drive stems arranged in a parallel manner, - a movable element (850, 854, 855, 856, 857, 860, 861) arranged on the drive stems to move along the drive stems, - the drive stems being arranged to cause a change in a position of the movable element with respect to the drive stem; and - a first micromanipulator element comprising said at least two drive stems and said movable element; wherein an additional factor of gravity exists having an effect on the homogeneity of the change of the position of the movable element between upward and downward directed movement, characterized in that the micromanipulator arrangement further comprises - means for compensating said additional factor of gravity such that said effect on said homogeneity is diminished, and - at least one force-generating part attached to said first micromanipulator element and arranged to interact with said first micromanipulator element such that the force-generating part can provide essentially constant compensation by mechanical means for the effect on said homogeneity of the change of position of said movable element caused by said additional factor of gravity, wherein the force-generating part is a spring that produces essentially constant force in its normal operating area regardless of the extension of the spring.
A component for a gas turbine engine comprising: at least one airfoil having a radially inner end and a radially outer end; and a platform having a gas path side supporting the radially outer end of the at least one airfoil and a non-gas path side including: a hook supported by the platform and having an anti-rotation surface facing in a circumferential direction, the anti-rotation surface being configured to engage a portion of an engine static structure; characterized in that the non-gas path side of the platform further comprises a conical surface spaced axially forward of a base portion of the hook and extending from a leading edge of the platform to the hook; and a triangular base extending from the platform and including a triangular base surface at its radially outer end, the triangular base surface connected to the anti-rotation surface via an anti-rotation transition surface and spaced radially outward from the conical surface. at least one airfoil having a radially inner end and a radially outer end; and a platform having a gas path side supporting the radially outer end of the at least one airfoil and a non-gas path side including: a hook supported by the platform and having an anti-rotation surface facing in a circumferential direction, the anti-rotation surface being configured to engage a portion of an engine static structure; characterized in that the non-gas path side of the platform further comprises a conical surface spaced axially forward of a base portion of the hook and extending from a leading edge of the platform to the hook; and a triangular base extending from the platform and including a triangular base surface at its radially outer end, the triangular base surface connected to the anti-rotation surface via an anti-rotation transition surface and spaced radially outward from the conical surface. a hook supported by the platform and having an anti-rotation surface facing in a circumferential direction, the anti-rotation surface being configured to engage a portion of an engine static structure; characterized in that the non-gas path side of the platform further comprises a conical surface spaced axially forward of a base portion of the hook and extending from a leading edge of the platform to the hook; and a triangular base extending from the platform and including a triangular base surface at its radially outer end, the triangular base surface connected to the anti-rotation surface via an anti-rotation transition surface and spaced radially outward from the conical surface.
A thermosetting resin composition comprising: an addition reaction product of a maleimide compound having at least two N-substituted maleimide groups in one molecule and an amine compound having at least two primary amino groups in one molecule, a thermoplastic elastomer, and a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a carboxylic acid anhydride, wherein the component contains a modified siloxane having an amino group at the end thereof. an addition reaction product of a maleimide compound having at least two N-substituted maleimide groups in one molecule and an amine compound having at least two primary amino groups in one molecule, a thermoplastic elastomer, and a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a carboxylic acid anhydride,
Pharmaceutical compositions in solid dosage units comprising either salts of ω-3 polyunsaturated acids with aminoacids, choline or aminoalcohols or microcapsules comprising ethyl esters of ω-3 polyunsaturated acids or inclusion complexes of ethyl esters of ω-3 polyunsaturated acids with cyclodextrins, a statin as a competitive inhibitor of HMG-CoA reductase, and pharmacologically acceptable excipients.
A power device having a current transformer, the power device comprising: first to Nth current transformers; an integrated measurement panel connected to the first to Nth transformers and configured to measure current values of locations where the first to Nth transformers are installed using current values detected by the first to Nth transformers, wherein the integrated measurement panel is configured to calculate linearity characteristics of measured currents of a plurality of current transformers by comparing an input current value and a detected current value; and calculate an average value of the calculated linearity characteristics of the plurality of current transformers; and identify a current transformer of which a linearity characteristic differs from the average value; and determine a compensation value for compensating the linearity characteristic of the identified current transformer with the average value by comparing the linearity characteristic and the average value, and measure the current values by applying the stored compensation values. first to Nth current transformers; an integrated measurement panel connected to the first to Nth transformers and configured to measure current values of locations where the first to Nth transformers are installed using current values detected by the first to Nth transformers, wherein the integrated measurement panel is configured to calculate linearity characteristics of measured currents of a plurality of current transformers by comparing an input current value and a detected current value; and calculate an average value of the calculated linearity characteristics of the plurality of current transformers; and identify a current transformer of which a linearity characteristic differs from the average value; and determine a compensation value for compensating the linearity characteristic of the identified current transformer with the average value by comparing the linearity characteristic and the average value, and measure the current values by applying the stored compensation values.