mhurhangee/patent-ind-claim-en huggingface dataset:
A core for an airfoil comprising a refractory metal structure having a variable thickness, wherein the structure is a unitary body having uniform material properties throughout the structure, the structure having at least one portion with a thickness of less than 1.52 mm (0.060 inch), characterised in that : the structure includes a first portion and a second portion in spaced apart and overlapping relationship with one another, wherein the structure is tapered between first and second portions , with the second portion having a thickness less than 0.51 mm (0.020 inch), and the structure includes a standoff interconnecting the first and second portions .
A ferrule (1; 201) for holding an end part of one or more optical fibers, the ferrule (1; 201) comprising: at least one fiber hole (12; 215) into which a respective optical fiber (3; 205) is to be inserted; an adhesive filling part (14; 216) that is surrounded by an upper wall part and a lower wall part facing the upper wall part , and that is to be filled with an adhesive to be applied between the optical fiber inserted in the at least one fiber hole (12; 215) and an inner wall surface of the adhesive filling part (14; 216); at least one upper opening provided in the upper wall part for filling the adhesive in the adhesive filling part (14; 216); and at least one lower opening provided in the lower wall part for ventilation between the adhesive filling part (14; 216) and outside of the ferrule (1; 201), characterised in that the at least one upper opening and the at least one lower opening are arranged to face each other symmetrically with respect to a longitudinal axis of the ferrule . at least one fiber hole (12; 215) into which a respective optical fiber (3; 205) is to be inserted; an adhesive filling part (14; 216) that is surrounded by an upper wall part and a lower wall part facing the upper wall part , and that is to be filled with an adhesive to be applied between the optical fiber inserted in the at least one fiber hole (12; 215) and an inner wall surface of the adhesive filling part (14; 216); at least one upper opening provided in the upper wall part for filling the adhesive in the adhesive filling part (14; 216); and at least one lower opening provided in the lower wall part for ventilation between the adhesive filling part (14; 216) and outside of the ferrule (1; 201), characterised in that the at least one upper opening and the at least one lower opening are arranged to face each other symmetrically with respect to a longitudinal axis of the ferrule .
User equipment, wherein the user equipment comprises: a sounding signal set receiving module , configured to receive a sounding signal set sent by a base station, wherein the sounding signal set comprises at least one sounding signal; a resource configuration index determining module , configured to determine a reference signal resource configuration index according to the sounding signal set, wherein the reference signal resource configuration index is used to indicate a reference signal resource configuration included in reference signal resource configuration set information received from the base station or predefined and known by both the user equipment and the base station; a channel state information determining module , configured to determine channel state information according to a reference signal set; wherein the reference signal set corresponds to the reference signal resource configuration indicated by the reference signal resource configuration index; and a channel state information sending module , configured to send the reference signal resource configuration index and the channel state information to the base station. a sounding signal set receiving module , configured to receive a sounding signal set sent by a base station, wherein the sounding signal set comprises at least one sounding signal; a resource configuration index determining module , configured to determine a reference signal resource configuration index according to the sounding signal set, wherein the reference signal resource configuration index is used to indicate a reference signal resource configuration included in reference signal resource configuration set information received from the base station or predefined and known by both the user equipment and the base station; a channel state information determining module , configured to determine channel state information according to a reference signal set; wherein the reference signal set corresponds to the reference signal resource configuration indicated by the reference signal resource configuration index; and a channel state information sending module , configured to send the reference signal resource configuration index and the channel state information to the base station.
A laser processing method comprising: irradiating laser lights (Ls) of fiber lasers or direct diode lasers from a nozzle to an iron-based plate material (W); selecting a nozzle to be used that has a nozzle opening (2b2) with an opening diameter (D) preliminarily set according to a thickness (t) of the plate material (W) to be worked and with respect to each output power (M) of the laser lights (Ls) from a plurality of nozzles whose nozzle openings (2b2) have different opening diameters (D) from each other; cutting the plate material (W) by injecting assist gas (AG) from the nozzle opening (2b2) while irradiating the laser lights (Ls) onto the plate material (W), characterized in that a trial cutting is performed in advance to grasp the opening diameter (D) which enables good cutting for each of different plate thicknesses (t) and each output power (M) of the laser lights (Ls), and a nozzle selection table (Tn) is created in advance; the nozzle having the nozzle diameter (D) associated with the thickness (t) of the plate material (W) to be cut and with respect to the desired output power (M) of the laser lights (Ls) is selected with respect to said nozzle selection table (Tn), and the plate material (W) is cut with said nozzle . irradiating laser lights (Ls) of fiber lasers or direct diode lasers from a nozzle to an iron-based plate material (W); selecting a nozzle to be used that has a nozzle opening (2b2) with an opening diameter (D) preliminarily set according to a thickness (t) of the plate material (W) to be worked and with respect to each output power (M) of the laser lights (Ls) from a plurality of nozzles whose nozzle openings (2b2) have different opening diameters (D) from each other; cutting the plate material (W) by injecting assist gas (AG) from the nozzle opening (2b2) while irradiating the laser lights (Ls) onto the plate material (W), characterized in that a trial cutting is performed in advance to grasp the opening diameter (D) which enables good cutting for each of different plate thicknesses (t) and each output power (M) of the laser lights (Ls), and a nozzle selection table (Tn) is created in advance; the nozzle having the nozzle diameter (D) associated with the thickness (t) of the plate material (W) to be cut and with respect to the desired output power (M) of the laser lights (Ls) is selected with respect to said nozzle selection table (Tn), and the plate material (W) is cut with said nozzle .
A manipulator having a distal end side and a proximal end side thereof comprising: a drive member disposed on the proximal end side and being movable back and forth; a ring-like flexible member , part of which is connected to the drive member ; an idle cylindrical member disposed closer to the distal end side than the drive member ; characterised by a driven cylindrical member disposed closer to the distal end side than the idle cylindrical member , and being movable back and forth; a guide cylindrical member disposed between the idle cylindrical member and the driven cylindrical member ; and an end effector being coupled to the driven cylindrical member , wherein the flexible member passes along both sides of the idle cylindrical member and is wound around the driven cylindrical member , and the flexible member crosses between the idle cylindrical member and the guide cylindrical member . a drive member disposed on the proximal end side and being movable back and forth; a ring-like flexible member , part of which is connected to the drive member ; an idle cylindrical member disposed closer to the distal end side than the drive member ; characterised by a driven cylindrical member disposed closer to the distal end side than the idle cylindrical member , and being movable back and forth; a guide cylindrical member disposed between the idle cylindrical member and the driven cylindrical member ; and an end effector being coupled to the driven cylindrical member , wherein the flexible member passes along both sides of the idle cylindrical member and is wound around the driven cylindrical member , and the flexible member crosses between the idle cylindrical member and the guide cylindrical member .
A trimmer head for a trimmer , the trimmer head comprising: a base plate defining an axial direction (A); a pivot head attached to the base plate , the pivot head comprising an extended post having a blade support surface to selectively receive a flail blade ; and a blade retainer comprising: a radial arm extending radially from the distal end to rotate relative to the base plate between a first position at which the radial arm is circumferentially aligned with the pivot head and a second position at which the radial arm is circumferentially spaced apart from the pivot head , characterized in that the blade retainer further comprises a mounting arm rotatably mounted to the base plate below the blade support surface relative to the axial direction (A) and an axial arm extending axially from a proximal end at the mounting arm to a distal end above the blade support surface , wherein the blade support surface is positioned between the radial arm and the base plate relative to the axial direction (A). a base plate defining an axial direction (A); a pivot head attached to the base plate , the pivot head comprising an extended post having a blade support surface to selectively receive a flail blade ; and a blade retainer comprising: a radial arm extending radially from the distal end to rotate relative to the base plate between a first position at which the radial arm is circumferentially aligned with the pivot head and a second position at which the radial arm is circumferentially spaced apart from the pivot head , characterized in that the blade retainer further comprises a mounting arm rotatably mounted to the base plate below the blade support surface relative to the axial direction (A) and an axial arm extending axially from a proximal end at the mounting arm to a distal end above the blade support surface , wherein the blade support surface is positioned between the radial arm and the base plate relative to the axial direction (A). a mounting arm rotatably mounted to the base plate below the blade support surface relative to the axial direction (A) and an axial arm extending axially from a proximal end at the mounting arm to a distal end above the blade support surface , wherein the blade support surface is positioned between the radial arm and the base plate relative to the axial direction (A).
An electrostatic substrate holder for mounting and holding a substrate , comprising: - a rotor (6, 6', 6", 6'"), comprising a holder (7, 7', 7") for fixing the substrate on a holding surface (7h, 7h', 7h"), - a stator (5, 5', 5", 5 iii , 5 iv ) for receiving and mounting the rotor (6, 6', 6", 6′′′), - electrodes (11, 11', 11") for producing an electrostatic holding force for fixing the substrate , wherein the electrodes (11, 11', 11") exert the electrical holding force on the substrate , wherein the stator (5, 5', 5", 5 iii , 5 iv ) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements , wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii , 5 iv ). - a rotor (6, 6', 6", 6'"), comprising a holder (7, 7', 7") for fixing the substrate on a holding surface (7h, 7h', 7h"), - a stator (5, 5', 5", 5 iii , 5 iv ) for receiving and mounting the rotor (6, 6', 6", 6′′′), - electrodes (11, 11', 11") for producing an electrostatic holding force for fixing the substrate , wherein the electrodes (11, 11', 11") exert the electrical holding force on the substrate , wherein the stator (5, 5', 5", 5 iii , 5 iv ) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements , wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii , 5 iv ). wherein the stator (5, 5', 5", 5 iii , 5 iv ) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements , wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii , 5 iv ).
A system comprising: a sensor operable to detect changes in a lateral position of a web of print media traveling through a continuous-forms printing system ; and a controller operable to adjust a lateral position of a printhead while the printing system is operating to compensate for the detected changes in web position; wherein the controller is further operable to adjust the lateral position of the printhead based on input from the sensor indicating a location of an edge of the web ; the sensor is configured to detect the location of the physical edge of the web ; and characterized in that : the controller is configured to process input from the sensor with a lowpass filter before adjusting the lateral position of the printhead . a sensor operable to detect changes in a lateral position of a web of print media traveling through a continuous-forms printing system ; and a controller operable to adjust a lateral position of a printhead while the printing system is operating to compensate for the detected changes in web position; wherein the controller is further operable to adjust the lateral position of the printhead based on input from the sensor indicating a location of an edge of the web ; the sensor is configured to detect the location of the physical edge of the web ; and characterized in that : the controller is configured to process input from the sensor with a lowpass filter before adjusting the lateral position of the printhead .
A liquid crystal writing film, comprising a first base film , a composite layer and a second base film , wherein the first base film comprises a first base layer and a first electrode layer disposed in sequence, with the first base layer serving as a writing surface, and the second base film comprises a second electrode layer and a second base layer disposed in sequence, with the composite layer (300, 300', 300") being located between the first electrode layer and the second electrode layer ; the composite layer comprises a first hybrid layer of which one side is laminated with the first electrode layer ; and the first hybrid layer comprises liquid crystal molecules and a high polymer material, characterized in that the content of the high polymer material in the first hybrid layer decreases gradually from the side far away from the first electrode layer to the side close to the first electrode layer .
A display device with a built-in touch screen, comprising: a substrate comprising a display area; (M ∗ n) pixels, each comprising m subpixels in the display area, where: n is a natural number, m is 3 or 4, and M is an even number when m is 3 and is a natural number when m is 4; [(M ∗ m/2) + 1] data lines on the substrate ; 2n gate lines that cross the data lines on the substrate ; and a plurality of touch electrodes on the substrate , wherein each of n rows of the subpixels is defined by an odd-numbered gate line and an even-numbered gate line that are continuous among the 2n gate lines, and wherein [(M ∗ m/2) - 1] data lines of the [M ∗ m/2 + 1] data lines are connected to a pair of subpixels in each of the n rows of subpixels, such that each data line of the [M ∗ m/2 - 1] data lines is shared by a pair of subpixels in each of the n rows of subpixels, wherein the first data line and the [(M ∗ m/2) + 1] th data line are at both edges in a horizontal direction of the display area of the substrate, wherein the display device further comprises first and second dummy subpixels outside the first data line and the [(M ∗ m/2) + 1] th data line at both edges in the horizontal direction of the display area, wherein the subpixels overlap the plurality of touch electrodes; and the first and second dummy subpixels partially overlap the touch electrodes. a substrate comprising a display area; (M ∗ n) pixels, each comprising m subpixels in the display area, where: n is a natural number, m is 3 or 4, and M is an even number when m is 3 and is a natural number when m is 4; n is a natural number, m is 3 or 4, and M is an even number when m is 3 and is a natural number when m is 4; [(M ∗ m/2) + 1] data lines on the substrate ; 2n gate lines that cross the data lines on the substrate ; and a plurality of touch electrodes on the substrate , wherein each of n rows of the subpixels is defined by an odd-numbered gate line and an even-numbered gate line that are continuous among the 2n gate lines, and wherein [(M ∗ m/2) - 1] data lines of the [M ∗ m/2 + 1] data lines are connected to a pair of subpixels in each of the n rows of subpixels, such that each data line of the [M ∗ m/2 - 1] data lines is shared by a pair of subpixels in each of the n rows of subpixels, wherein the first data line and the [(M ∗ m/2) + 1] th data line are at both edges in a horizontal direction of the display area of the substrate, wherein the display device further comprises first and second dummy subpixels outside the first data line and the [(M ∗ m/2) + 1] th data line at both edges in the horizontal direction of the display area, wherein the subpixels overlap the plurality of touch electrodes; and the first and second dummy subpixels partially overlap the touch electrodes.
A fuel filter system for filtering a media flow comprising water and fuel, having a separating device for water disposed in a filter system housing , and a cleaning module for absorptively and/or adsorptively receiving a fuel portion in the separated water, wherein the cleaning module comprises a housing having an inlet and an outlet and a replaceable filter element disposed in the housing , wherein the filter element features a material capable of absorption and/or adsorption for accommodating at least some of the fuel in the separated water, characterized in that the cleaning module is disposed beside the filter system housing , in that the housing comprises a lower first housing component and an upper second housing component , wherein the inlet is disposed on the first housing component , wherein the first and the second housing components are designed for being detachably interconnected in a media-tight manner, and wherein the filter element is disposed on the second housing component and forms a cartridge with it, and in that a flow direction of the media flow through the filter element in the installed state as intended is directed against the force of gravity.
A method for stacking flat material sheets in a stacking device , in particular in a stacking device that is part of a printing and/or coating machine , said stacking device comprising at least one pile delivery (03.1; 03.2) having a stacking space, wherein material sheets are conveyed above the stacking space of the pile delivery (03.1; 03.2), which is part of the stacking device , and are deposited one on top of the other on a loading aid to form a pile (06, 06'; 06"), wherein for two different production runs, the piles (06, 06'; 06") are formed on the loading aid with the four corners of their main surface area arranged in mutually different positions relative to the loading aid , which in each case is arranged within the stacking space of the pile delivery (03.1; 03.2) and is larger in format than the material sheets to be deposited in each case, in that for each of the two production runs, a loading aid of the same format is positioned at a different location within the stacking space of the pile delivery (03.1; 03.2), as viewed in the horizontal projection, characterized in that a positioning of the loading aid for at least one of the two production runs is assisted by a data processing-based positioning aid, by means of which for the production run in question, a position specification relating to the target position of the loading aid is determined for a drive device that positions alignment aid (21; 22; 23; 24; 25; 26; 27), and positioning is carried out in accordance with the position specification, in that , as the position specification relating to the target position of the loading aid , a target location of at least one alignment aid (21; 22; 23; 24; 25; 26; 27), configured as an optical indicator (21; 22; 23; 24; 25; 26; 27) or as a mechanical stop means, is determined and implemented, i.e., activation or positioning is carried out in accordance with the position specification, and in that , as the position specification relating to the target position of the loading aid , the target location of at least one alignment aid (21; 22) that is used for aligning and/or positioning the downstream or upstream loading aid edge (19; 18) and/or the target location of an alignment aid (23; 26) that is used for aligning and/or positioning a lateral loading aid edge (48; 49) is determined, and activation or positioning is carried out in accordance with said position specification.
An implantable apparatus for reshaping a mitral valve annulus surrounding a mitral valve, comprising a tubular implant body (400; 600; 1906; 2107; 3000) comprising: a plurality of struts (636, 637; 676, 677; 1903; 2104) joined at proximal and distal apexes; a central lumen therethrough; anchors (632, 633; 1904; 2105) extending distally from the distal apexes joining the struts; and a plurality of mechanisms comprising an adjustable restraint (634; 671; 1902; 2106), a screw retainer (635; 673; 1901; 2102) and a screw (630; 670; 1900; 2103) that passes through said adjustable restraint and screw retainer, wherein each adjustable restraint is placed over adjacent struts (636, 637; 676, 677; 1903; 2104) that are joined at a proximal apex and threaded such that rotation of the screw moves the adjustable restraint up and down the adjacent struts, thereby adjusting the size and/or shape of the implant. a plurality of struts (636, 637; 676, 677; 1903; 2104) joined at proximal and distal apexes; a central lumen therethrough; anchors (632, 633; 1904; 2105) extending distally from the distal apexes joining the struts; and a plurality of mechanisms comprising an adjustable restraint (634; 671; 1902; 2106), a screw retainer (635; 673; 1901; 2102) and a screw (630; 670; 1900; 2103) that passes through said adjustable restraint and screw retainer, placed over adjacent struts (636, 637; 676, 677; 1903; 2104) that are joined at a proximal apex and threaded such that rotation of the screw moves the adjustable restraint up and down the adjacent struts, thereby adjusting the size and/or shape of the implant.
An aqueous suspension of an enkephalinase inhibitor suitable for oral administration, wherein said suspension has a pH comprised between 3.5 and 5, wherein said enkephalinase inhibitor is racecadotril .