mhurhangee/ep-ind-claims huggingface dataset:
A scanning lidar system (600, 700, 800, 900) comprising: a fixed frame (430a-d, 520, 610, 910); a first platform (320, 410, 620, 510, 920); a first electro-optic assembly including a first laser source (110a, 640) and a first photodetector (160a, 650) mounted on the first platform (320, 620, 510); a first flexure assembly (420a-b, 312a-d and 322a-d, 530a-d, 670a-b, 970) flexibly coupling the first platform (320, 410, 620, 510) to the fixed frame (910, 430a-d, 610, 520); a drive mechanism (660a-b) configured to, via the first flexure assembly, translate the first platform (320, 410, 620, 510) with respect to the fixed frame (910, 430a-d, 610, 520) in two mutually orthogonal directions in a plane substantially perpendicular to an optical axis of the scanning lidar system (600, 700, 800, 900); and a controller coupled to the drive mechanism (660a-b), the controller configured to cause the drive mechanism (660a-b) to translate the first platform (320, 410, 620, 510) in a first direction with a first frequency and in a second direction orthogonal to the first direction with a second frequency, wherein a ratio of the first frequency to the second frequency ranges from 0.5 to 2.0. a fixed frame (430a-d, 520, 610, 910); a first platform (320, 410, 620, 510, 920); a first electro-optic assembly including a first laser source (110a, 640) and a first photodetector (160a, 650) mounted on the first platform (320, 620, 510); a first flexure assembly (420a-b, 312a-d and 322a-d, 530a-d, 670a-b, 970) flexibly coupling the first platform (320, 410, 620, 510) to the fixed frame (910, 430a-d, 610, 520); a drive mechanism (660a-b) configured to, via the first flexure assembly, translate the first platform (320, 410, 620, 510) with respect to the fixed frame (910, 430a-d, 610, 520) in two mutually orthogonal directions in a plane substantially perpendicular to an optical axis of the scanning lidar system (600, 700, 800, 900); and a controller coupled to the drive mechanism (660a-b), the controller configured to cause the drive mechanism (660a-b) to translate the first platform (320, 410, 620, 510) in a first direction with a first frequency and in a second direction orthogonal to the first direction with a second frequency, wherein a ratio of the first frequency to the second frequency ranges from 0.5 to 2.0.
Heat exchanger including exchange components and fluid flow components (2, 2', 3), at least one fluid collecting tank (11, 11') into which the exchange components open out (2, 2', 3), a housing for accommodating the exchange components (2, 2', 3), a collecting plate for holding the exchange components (2, 2', 3), and a flange for fixing the collecting tank (11, 11') to the housing, characterized in that the flange comprises a groove for fixing the housing and a groove for fixing the collecting tank, the grooves (G1, G2) having a common wall, the flange and the collecting plate being distinct parts fixed to the housing independently of each other.
A radiation source configured to generate extreme ultraviolet radiation, the radiation source comprising: a droplet generator constructed and arranged to generate fuel droplets (24a-g); a heater (40, 50) constructed and arranged to heat the fuel droplets following generation of the fuel droplets by the droplet generator, and thereby reduce the mass of fuel present in the fuel droplets and/or reduce the density of the fuel droplets; a radiation emitter constructed and arranged to direct radiation (5, 28) onto the fuel droplets that have been heated by the heater, and thereby cause the extreme ultraviolet radiation to be generated; and a mitigation system constructed and arranged to mitigate fuel vapor that is generated when the droplets are heated by the heater, characterized in that said mitigation system is a gas flow. a droplet generator constructed and arranged to generate fuel droplets (24a-g); a heater (40, 50) constructed and arranged to heat the fuel droplets following generation of the fuel droplets by the droplet generator, and thereby reduce the mass of fuel present in the fuel droplets and/or reduce the density of the fuel droplets; a radiation emitter constructed and arranged to direct radiation (5, 28) onto the fuel droplets that have been heated by the heater, and thereby cause the extreme ultraviolet radiation to be generated; and a mitigation system constructed and arranged to mitigate fuel vapor that is generated when the droplets are heated by the heater, characterized in that said mitigation system is a gas flow.
A system comprising an electrosurgical lysing device, said electrosurgical lysing device comprising: a lysing tip, comprising: a plurality of elongate beads; at least one lysing member defining at least one lysing segment extending between each pair of adjacent beads; the system further comprising an elongate shaft having a longitudinal dimension and a lateral dimension perpendicular to the longitudinal dimension, the shaft being configured to control the lysing tip during a surgical procedure within a patient's body, and the shaft having a distal tip to attach the lysing tip to the shaft in a position in which the lysing tip extends laterally across the distal tip; wherein the plurality of beads comprises first and second beads arranged outermost on the tip at opposite ends thereof; whereby the outermost elongate beads are arranged laterally beyond the shaft, and characterised by a tunnel extending at least partially through each of the plurality of beads, wherein the at least one lysing member is positioned to extend at least partially through the tunnel to define the at least one lysing segment between each pair of adjacent beads, wherein said outermost elongate beads extend substantially parallel to the elongate shaft. a plurality of elongate beads; at least one lysing member defining at least one lysing segment extending between each pair of adjacent beads; the system further comprising an elongate shaft having a longitudinal dimension and a lateral dimension perpendicular to the longitudinal dimension, the shaft being configured to control the lysing tip during a surgical procedure within a patient's body, and the shaft having a distal tip to attach the lysing tip to the shaft in a position in which the lysing tip extends laterally across the distal tip; wherein the plurality of beads comprises first and second beads arranged outermost on the tip at opposite ends thereof; whereby the outermost elongate beads are arranged laterally beyond the shaft, and characterised by a tunnel extending at least partially through each of the plurality of beads, wherein the at least one lysing member is positioned to extend at least partially through the tunnel to define the at least one lysing segment between each pair of adjacent beads, wherein said outermost elongate beads extend substantially parallel to the elongate shaft.
Body structure of a motor vehicle, comprising two substantially parallel longitudinal reinforcing side members, a body side superstructure connected to the side members, rising above the side members and defining, on either side of the vehicle, two wheel arch housing portions of the vehicle, the two wheel arch housing portions being connected by a floor portion of the vehicle, offset vertically relative to the side members and positioned above the side members, the structure comprising, at each wheel arch housing portion, at least one rear shock absorber attachment cup assembled to the side superstructure, and assembled to a side member by means of a raising part connecting the cup and only a portion of the side member, having a width, measured in a longitudinal direction (x) of the vehicle, substantially equal to that of the cup.
An attachment structure of a hood lock device (30; 50; 60; 80; 120), wherein the hood lock device (30; 50; 60; 80; 120) is configured to be fastened to an attachment portion (20; 40; 70; 90; 100; 110; 130; 50X; 60X) arranged on a vehicle main body and configured to be engaged with a hood striker arranged on an inner surface of a hood of a vehicle to lock the hood in a closed state, the attachment structure comprising: at least one tentative attachment portion configured to tentatively attach the hood lock device (30; 50; 60; 80; 120) to the attachment portion (20; 40; 70; 90; 100; 110; 130; 50X; 60X) using a fitting force in a state in which the attachment portion (20; 40; 70; 90; 100; 110; 130; 50X; 60X) and the hood lock device (30; 50; 60; 80; 120) are movable relative to each other in a vehicle transverse direction.
An end effector for an articulated arm, said end effector comprising a valve assembly comprising a valve plate split into a top piece and a bottom piece and a printed circuit board sandwiched between the top piece and the bottom piece, said valve assembly including a plurality of supply channels (32, 34) extending through the top piece and the bottom piece, each supply channel including a supply conduit, a pressure sensor mounted on the printed circuit board and in fluid communication with the supply conduit, and a supply conduit plug; wherein said supply conduit is in fluid communication with a vacuum source (102, 104); wherein during use, each supply conduit is either at vacuum such that the pressure within the supply conduit is substantially at a vacuum pressure, or is at a pressure that is substantially higher than vacuum pressure because the supply conduit plug has moved to block a portion of the supply conduit; and wherein said pressure sensor of each supply conduit provides a pressure sensor signal responsive to whether the pressure in the conduit is either substantially at vacuum or is at a pressure that is substantially higher than vacuum. wherein said supply conduit is in fluid communication with a vacuum source (102, 104); wherein during use, each supply conduit is either at vacuum such that the pressure within the supply conduit is substantially at a vacuum pressure, or is at a pressure that is substantially higher than vacuum pressure because the supply conduit plug has moved to block a portion of the supply conduit; and wherein said pressure sensor of each supply conduit provides a pressure sensor signal responsive to whether the pressure in the conduit is either substantially at vacuum or is at a pressure that is substantially higher than vacuum.
A gas turbine engine having an engine centreline and at least one turbine vane, the at least one turbine vane comprising: an inner platform and an outer platform joined together by an airfoil, the airfoil including a leading edge and a trailing edge joined together by a pressure side and a suction side disposed opposite the pressure side, the inner platform comprising a plurality of inner cooling holes (96, 98, 100); characterised in that the plurality of inner cooling holes (96, 98, 100) are positioned substantially at geometric coordinates in accordance with Cartesian coordinate values of Xi, Yi, and Zi as set forth in Table 1, wherein each of the geometric coordinates is measured from a reference point on the engine centreline with the X-axis defined along the direction of the engine centreline and the Z-axis defined in a radial direction, and the cooling holes (96, 98, 100) have a positional tolerance of their centrepoint relative to the coordinates within a diameter of at least one of 0.558 mm (0.022 inches) and 0.431 mm (0.017 inches). an inner platform and an outer platform joined together by an airfoil, the airfoil including a leading edge and a trailing edge joined together by a pressure side and a suction side disposed opposite the pressure side, the inner platform comprising a plurality of inner cooling holes (96, 98, 100); characterised in that the plurality of inner cooling holes (96, 98, 100) are positioned substantially at geometric coordinates in accordance with Cartesian coordinate values of Xi, Yi, and Zi as set forth in Table 1, wherein each of the geometric coordinates is measured from a reference point on the engine centreline with the X-axis defined along the direction of the engine centreline and the Z-axis defined in a radial direction, and the cooling holes (96, 98, 100) have a positional tolerance of their centrepoint relative to the coordinates within a diameter of at least one of 0.558 mm (0.022 inches) and 0.431 mm (0.017 inches).
An enclosure, applied to a mobile terminal, wherein the enclosure comprises a substrate and a composite film layer coated onto the substrate, a thickness of the composite film layer gradually decreases or increases in a first direction, wherein the composite film layer comprises a first region, a second region, and a third region sequentially arranged in the first direction, and a difference between average film thicknesses of any two regions is less than or equal to 350 nanometers, so that the first region, the second region, and the third region of the enclosure present a gradient color of adjacent colors of a wavelength ranging from 400 nanometers to 760 nanometers, wherein a difference between an average film thickness of the first region and an average film thickness of the second region is a first value, a difference between the average film thickness of the second region and an average film thickness of the third region is a second value, and a ratio of the first value to the second value is within a range of 0.5 to 2.0.
A combination of an angle connector (100; 200; 310, 320, 330) with a first support profile and with a second support profile for connecting the first support profile, which has a first cavity, a first outer side surface and a first active fastening element (30, 34, 40, 44), to the second support profile, which has a second cavity, a second outer side surface and a second active fastening element (30, 34, 40, 44), the first outer side surface of the first support profile and the second outer side surface of the second support profile each having a central slot aligned in the longitudinal direction of the respective side surface of the respective support profile (10, 20), the angle connector being provided with a corner element (110; 210, 310) having a first end face (55, 56) and a second end face (55, 56) which are aligned perpendicular to one another, with a first free end (120;220; 320) extending beyond the first end face (55, 56) insertable into the first cavity of the first support profile, with a second free end (130; 230; 330) extending beyond the second end face (55, 56) insertable into the second cavity of the second support profile, wherein the first free end (120; 220; 320) is perpendicular to the second end face (55, 56); 220; 320) being oriented perpendicular to the second free end (130; 230; 330); the first free end (120; 220; 320) of the angle connector having a first passive fixing means (131, 132, 133; 231, 232, 233; 321, 332, 323; 331, 332, 333), the second free end (130; 230; 330) of the angle connector has a second passive fixing means (131, 132, 133; 231, 232, 233; 321, 332, 323; 331, 332, 333), the first free end of the angle connector being releasably connected to the complementary active fixing element (30, 34; 40, 44) to the associated first support profile, the second end of the angle connector being releasably connectable to the associated second support profile via the complementary second active fastening element (30, 34; 40, 44), wherein the corner element (110; 210; 310) comprises a first and a second profile element (111, 112; 211, 212; 311, 312) having a central slot (112; 212; 312), the first and second profile elements being provided on two mutually perpendicular outer sides of the corner element, the central slots (112; 212; 312) of the profile elements (111, 112; 211, 212; 311, 312) each being compatibly continued in the central slots of the supporting profiles (10, 20), and the first and second profile elements (111, 112; 211, 212; 311, 312) of the angle connector being extended from the corner in which they meet to the height of the associated first and second end face (55, 56), respectively, of the corner element (110; 210; 310).
A catalyst for exhaust gas purification comprising a carrier and a platinum group element supported on the carrier, the carrier comprising a modified aluminum borate which contains aluminum borate and at least one oxide selected from the group consisting of ZrO 2 and TiO 2, and the modified aluminum borate containing the oxide in a concentration of 0.06% to 18% by mass relative to the mass of the modified aluminum borate.
A mobile station comprising: a first layer function configured to communicate between the mobile station and a radio access network, and a second layer function configured to terminate between the mobile station and a service control network, wherein the first layer function comprises: a broadcast information reception unit configured to receive broadcast information; an adjustment unit configured to generate second barring information based on access classes of the mobile station and first barring information included in the broadcast information; and a notification unit configured to notify the second layer function of the second barring information, and the second layer function comprises a determination unit configured to determine whether or not it is possible to perform a call request process based on the second barring information. a first layer function configured to communicate between the mobile station and a radio access network, and a second layer function configured to terminate between the mobile station and a service control network, wherein the first layer function comprises: a broadcast information reception unit configured to receive broadcast information; an adjustment unit configured to generate second barring information based on access classes of the mobile station and first barring information included in the broadcast information; and a notification unit configured to notify the second layer function of the second barring information, and a broadcast information reception unit configured to receive broadcast information; an adjustment unit configured to generate second barring information based on access classes of the mobile station and first barring information included in the broadcast information; and a notification unit configured to notify the second layer function of the second barring information, and the second layer function comprises a determination unit configured to determine whether or not it is possible to perform a call request process based on the second barring information.
A hole plug that is configured to plug a hole of a component providing a robust sealing interface that prevents fluid leakage therebetween, the hole plug comprising: a collar that is configured to abut a first surface of the component; and a plugging protuberance extending from the collar, wherein the plugging protuberance comprises a first lip and a second lip, wherein the first lip is configured to abut an internal edge of the component that defines the hole, and wherein the second lip is configured to abut a second surface of the component that is opposite from the first surface, and wherein each of the first lip and the second lip comprises a ledge (126, 132) that connects to a ramped semi-cone (128, 134), characterised in that the plugging protuberance further comprises a dome-shaped nose connected to the second lip. a collar that is configured to abut a first surface of the component; and a plugging protuberance extending from the collar, wherein the plugging protuberance comprises a first lip and a second lip, wherein the first lip is configured to abut an internal edge of the component that defines the hole, and wherein the second lip is configured to abut a second surface of the component that is opposite from the first surface, and wherein each of the first lip and the second lip comprises a ledge (126, 132) that connects to a ramped semi-cone (128, 134),
A method for generating a pipe assembly, comprising: positioning a ring of material with respect to an extrusion head; coupling the ring of material to a lowering mechanism; extruding material on top of the ring of material to form a pipe wall on the ring of material; and iteratively: 1) lowering the ring of material and the pipe wall a predetermined distance; and 2) extruding the material on the pipe wall to extend the pipe wall until the pipe wall is a desired length. positioning a ring of material with respect to an extrusion head; coupling the ring of material to a lowering mechanism; extruding material on top of the ring of material to form a pipe wall on the ring of material; and iteratively: 1) lowering the ring of material and the pipe wall a predetermined distance; and 2) extruding the material on the pipe wall to extend the pipe wall until the pipe wall is a desired length. 1) lowering the ring of material and the pipe wall a predetermined distance; and 2) extruding the material on the pipe wall to extend the pipe wall until the pipe wall is a desired length.
A laundry treatment apparatus comprising: a drum configured to rotate within the laundry treatment apparatus and to accommodate laundry therein, the drum formed of a metal material; an induction module configured to be spaced apart from an outer circumferential surface of the drum and configured to heat the drum via induction using a magnetic field that is generated in a state in which current is applied to a coil in the induction module; and a plurality of lifters provided in the drum, wherein each of the lifters extends substantially along a rotational axis of the drum, and that is configured to revolve around the axis of rotation of the drum and to agitate the laundry inside the drum as the drum rotates, characterized in that the drum comprises a lifter mounting portion for each of the plurality of lifters, wherein a recessed region is formed in the center of the lifter mounting portion, said recessed region being formed by cutting away a portion of a circumferential surface of the drum or formed by recessing a portion of the circumferential 15 surface of the drum inwards in the radial direction of the drum, wherein the recessed region is formed to correspond to the inside of the lifter and is surrounded by the lifter and each of the lifters comprises a protruding portion that defines a hollow cavity therein. a drum configured to rotate within the laundry treatment apparatus and to accommodate laundry therein, the drum formed of a metal material; an induction module configured to be spaced apart from an outer circumferential surface of the drum and configured to heat the drum via induction using a magnetic field that is generated in a state in which current is applied to a coil in the induction module; and a plurality of lifters provided in the drum, wherein each of the lifters extends substantially along a rotational axis of the drum, and that is configured to revolve around the axis of rotation of the drum and to agitate the laundry inside the drum as the drum rotates, characterized in that the drum comprises a lifter mounting portion for each of the plurality of lifters, wherein a recessed region is formed in the center of the lifter mounting portion, said recessed region being formed by cutting away a portion of a circumferential surface of the drum or formed by recessing a portion of the circumferential 15 surface of the drum inwards in the radial direction of the drum, wherein the recessed region is formed to correspond to the inside of the lifter and is surrounded by the lifter and each of the lifters comprises a protruding portion that defines a hollow cavity therein.