mhurhangee/ep-ind-claims huggingface dataset:
A clip for attaching an object to a catenary cable, the clip comprising: a single-piece body including: a hook portion configured to receive the catenary cable; a load arm extending from the hook portion to engage the object; a locking arm extending from the hook portion; and the hook portion connecting the load arm to the locking arm with the load arm and the locking arm extending from the hook portion; the single-piece body having an open configuration in which the load arm and the locking arm define an opening to admit the catenary cable into the hook portion; the single-piece body having a closed configuration in which the locking arm engages the load arm to close the hook portion around the catenary cable; and wherein the hook portion is configured to support the clip relative to the catenary cable, with the catenary cable seated against the hook portion, to support an object hanging from the load arm relative to the catenary cable; and wherein the single-piece body includes a finger that extends into an interior of the hook portion, the finger being configured to be urged into the catenary cable, to secure the catenary cable within the hook portion, when the single-piece body is moved from the open configuration to the closed configuration. a single-piece body including: a hook portion configured to receive the catenary cable; a load arm extending from the hook portion to engage the object; a locking arm extending from the hook portion; and the hook portion connecting the load arm to the locking arm with the load arm and the locking arm extending from the hook portion; a hook portion configured to receive the catenary cable; a load arm extending from the hook portion to engage the object; a locking arm extending from the hook portion; and the hook portion connecting the load arm to the locking arm with the load arm and the locking arm extending from the hook portion; the single-piece body having an open configuration in which the load arm and the locking arm define an opening to admit the catenary cable into the hook portion; the single-piece body having a closed configuration in which the locking arm engages the load arm to close the hook portion around the catenary cable; and wherein the hook portion is configured to support the clip relative to the catenary cable, with the catenary cable seated against the hook portion, to support an object hanging from the load arm relative to the catenary cable; and wherein the single-piece body includes a finger that extends into an interior of the hook portion, the finger being configured to be urged into the catenary cable, to secure the catenary cable within the hook portion, when the single-piece body is moved from the open configuration to the closed configuration.
Modular transport land robot (100, 101), comprising a bearing module in the form of a longitudinal beam having two end zones (Z1, Z2) and a supporting central zone, a remote control module intended to control the robot (100, 101) and a modular drive (25, 26, 27) made up of at least two independent mobility units (9, 10, 28) comprising at least one propulsion unit borne by at least one and the other of the end zones (Z1, Z2) of the said longitudinal beam and fixed, characterized in that, in the use mode, under these end zones (Z1, Z2) by securing modules, in that the or each propulsion unit comprises at least one heat engine or electric motor, a transmission and a set of running gear (13, 34), and in that the said mobility units (9, 10, 28) define between them, under the central zone of the bearing longitudinal beam, an available volume intended to transport at least one payload module (31, 32) so that the bearing longitudinal beam is situated, in the use mode, above the propulsion units (9, 10, 28).
A battery pack comprising: a plurality of battery cells arranged side-by-side; a lead plate electrically connecting the plurality of battery cells; a protection circuit module electrically connected with the lead plate; and a temperature sensor electrically connected with the protection circuit module arranged to measure the temperature of the plurality of battery cells, wherein the lead plate has a hole in which the temperature sensor is located for defining the position of the temperature sensor. a plurality of battery cells arranged side-by-side; a lead plate electrically connecting the plurality of battery cells; a protection circuit module electrically connected with the lead plate; and a temperature sensor electrically connected with the protection circuit module arranged to measure the temperature of the plurality of battery cells, wherein the lead plate has a hole in which the temperature sensor is located for defining the position of the temperature sensor.
Filtering body for a downdraught extractor hood, which hood can aspirate vapours from a hob through an aspiration opening created in said hob, said filtering body being interposed between said aspiration opening and an aspiration unit of the downdraught hood, said filtering body comprising a filtering unit and a unit for collection of liquids, and/or grease coming from the aspiration opening and from the condensate of said aspirated vapours, said filtering body comprising a frame with a solid prismatic or cylindrical geometric form, the frame delimiting at least one upper opening which faces towards said aspiration opening, and a lower opening which faces towards said aspiration unit, the filtering unit being inserted inside said frame, characterised in that said filtering unit has a central portion going towards said upper opening, from sides of said central portion, with lateral parts extending, descending towards the lower opening of the frame as far as lateral ends of the filtering unit, the unit for collection of the liquids, oil and grease being present below these ends, the frame comprising lateral openings on which there are placed flanks of the filtering unit which are connected to the lateral ends of the lateral parts of the filtering unit which overlie the unit for collection of the liquids, oil and grease, said filtering unit thus rising along said lateral openings of the frame, said lateral ends having holes to permit the passage of said liquids, oil and grease into the collection unit below.
A magnetic alloy represented by the compositional formula: Fe 100-x-y-2-a-b-c Co a Cu x B y Ni b X z Z c (wherein, X is one or more of the elements Si, S, C, P, Al, Ge, Ga and Be, Z is one or more of the elements selected from Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Re, platinum group elements, Au, Ag, Zn, In, Sn, As, Sb, Bi, Y, N, O and rare earth elements and, in terms of atomic percent, 1 < x ≤ 3, 10 ≤ y ≤ 20, 0 ≤ z ≤ 10, 10 < a < 25, 10 < y + z ≤ 24, b < 2 atomic % with respect to the amount of Fe, and c < 1 atomic % with respect to the amount of Fe), wherein crystal grains having a diameter of 60 nm or less are dispersed at a volume fraction of 30% or more in an amorphous matrix and the magnetic alloy has a saturation magnetic flux density of 1.85 T or more and a coercive force of 200 A/m or less.
Method for laser welding of monolithic semifinished products made from aluminium alloy, without filler wire, comprising the following steps: - Supply of at least two monolithic semifinished products made from aluminium alloy, at least one of which is a rolled sheet having the composition (% by weight): Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, other elements < 0.05 each and < 0.15 in total, the rest aluminium, with the condition: 5.2 Fe + 1.95 Si - 0.5 Cu - Mg ≥ 7.0 - Laser welding of the semifinished products made from aluminium alloy, without filler wire. - Supply of at least two monolithic semifinished products made from aluminium alloy, at least one of which is a rolled sheet having the composition (% by weight): Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, other elements < 0.05 each and < 0.15 in total, the rest aluminium, with the condition: 5.2 Fe + 1.95 Si - 0.5 Cu - Mg ≥ 7.0 Si: 2.5-14 Fe: 0.05-0.80 Cu: ≤ 0.20 Mg: 0.05-0.80 Mn: ≤ 0.70 Cr: ≤ 0.35 Ti: 0.02-0.30 Sr up to 500ppm Na up to 200ppm Sb up to 0.15%, - Laser welding of the semifinished products made from aluminium alloy, without filler wire.
A spinal implant comprising: • an anchoring part adapted to be anchored to a vertebra (10, 20), comprising a threaded body extending along a first axis and first connecting means; and • a mounting part comprising both an internal axial housing extending along a second axis and open to the outside via two facing lateral openings in the form of cradles for receiving transversely a connecting rod, this axial housing being terminated beside the anchoring part by a bottom, and also second connecting means (140, 153) that cooperate with said first connecting means to form a ball-joint connection between said anchoring part and said mounting part; • retaining means that are situated in a space between the bottom of the cradles formed by the two lateral openings and the bottom of the axial housing and that are adapted to fasten a locking member in a stationary so-called locking position in which the ball-joint connection formed by said first and second connecting means (112, 140, 153) is locked to fasten said anchoring part and said mounting part in rotation relative to each other about at least two orthogonal axes (A3, A4), the implant being characterized in that said retaining means are arranged in such a manner as to be capable of fastening said locking member in the locking position only when said second axis coincides with said first axis and in that said locking member is separate from said second connecting means (140, 153). • an anchoring part adapted to be anchored to a vertebra (10, 20), comprising a threaded body extending along a first axis and first connecting means; and • a mounting part comprising both an internal axial housing extending along a second axis and open to the outside via two facing lateral openings in the form of cradles for receiving transversely a connecting rod, this axial housing being terminated beside the anchoring part by a bottom, and also second connecting means (140, 153) that cooperate with said first connecting means to form a ball-joint connection between said anchoring part and said mounting part; • retaining means that are situated in a space between the bottom of the cradles formed by the two lateral openings and the bottom of the axial housing and that are adapted to fasten a locking member in a stationary so-called locking position in which the ball-joint connection formed by said first and second connecting means (112, 140, 153) is locked to fasten said anchoring part and said mounting part in rotation relative to each other about at least two orthogonal axes (A3, A4), the implant being characterized in that said retaining means are arranged in such a manner as to be capable of fastening said locking member in the locking position only when said second axis coincides with said first axis and in that said locking member is separate from said second connecting means (140, 153).
A method for transmitting or conveying fluid or semi-fluid materials, in particular concrete or cement, by means of a double piston pump, which comprises two conveying cylinders (3, 4), each provided inside with a conveying piston (5, 6), said conveying pistons (5, 6) being movable in an alternating push-pull manner, a feed hopper for receiving material to be conveyed, which is fed by a material feed unit, a transfer tube system comprising a transfer tube, which is connectable to a flow line or conveying pipes and is capable to connect said flow line or conveying pipes alternately with one of said conveying cylinders (3, 4) by means of articulation means, said articulation means comprising two swivel or plunger cylinders (45, 47) being hydraulically actuateable, the swivelling movement of said transfer tube being generated by said swivel or plunger cylinders (45, 47), a conveying piston drive mechanism comprising a drive piston (19, 21) for each conveying piston (5, 6) provided in a hydraulic drive system, said drive pistons (19, 21) being connected to the dedicated conveying piston (5, 6), wherein both drive pistons (19, 21) are supplied by a conveying pump being provided in a hydraulic circuit, said supply being controllable by a valve, and a main control valve with which the alternating hydraulic supply to the corresponding drive piston (19, 21) is controlled, characterised in that during swivelling movement of the transfer tube: - the hydraulic supply to the drive pistons (19, 21) is interrupted and said hydraulic circuit of the conveying pump is short-circuited by means of said main control valve, and - the delivery rate of the conveying pump is increased, so that after the swivelling movement of the transfer tube has been terminated and at the beginning of a next conveying cycle an increased supply output of the supplying conveying cylinder (3, 4) is carried out for a short term leading to a short-term increase of said supplied fluid or semi-fluid materials. - the hydraulic supply to the drive pistons (19, 21) is interrupted and said hydraulic circuit of the conveying pump is short-circuited by means of said main control valve, and - the delivery rate of the conveying pump is increased,
A fingerprint identification apparatus, comprising a fingerprint sensor, an optical module electrically connected to the fingerprint sensor and a metal ring, wherein the optical module comprises an optical emitter, an optical circuit module and a photoelectric converter; wherein the optical circuit module is electrically connected to the optical emitter and the photoelectric converter respectively; the optical emitter is configured to emit an optical signal having a specific wavelength; the photoelectric converter is configured to receive the optical signal emitted by the optical emitter and subjected to a touch object, and convert the optical signal into an electric signal; and the optical circuit module is configured to drive and control the optical emitter, and analyze the electric signal, wherein the fingerprint identification apparatus is characterized in that: the optical emitter is disposed inside the space enclosed by the metal ring; the fingerprint sensor and the optical emitter are packaged together to form a fingerprint package; and the fingerprint sensor and the optical module are both disposed inside the metal ring. the optical emitter is disposed inside the space enclosed by the metal ring; the fingerprint sensor and the optical emitter are packaged together to form a fingerprint package; and the fingerprint sensor and the optical module are both disposed inside the metal ring.
Heat transfer pipe having a longitudinal pipe axis, a pipe wall, an outer pipe side and an inner pipe side, wherein - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the outer pipe side and/or inner pipe side, - continuously extending primary grooves are formed in each case between adjacent ribs, wherein the ribs are subdivided along the rib extent into periodically repeating rib portions which are separated into a large number of projections with a projection height (h), wherein the projections are formed by cutting the ribs at a cutting depth (t 1, t 2, t 3) transversely relative to the rib extent in order to form rib segments and by raising the rib segments with a main orientation along the rib extent between primary grooves, characterised in that the projections have alternately changing cutting depths (t 1, t 2, t 3) through a rib. - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the outer pipe side and/or inner pipe side, - continuously extending primary grooves are formed in each case between adjacent ribs,
Instrument panel trim apparatus for mounting in a vehicle to frame an instrument cluster above a collapsible steering column, comprising: an integrally molded panel having a framing wall surrounding an instrument cluster with an upper collar section and a lower bridge section, and the panel having a shroud extending downward from the bridge section; the instrument panel trim apparatus being characterized in that; the upper collar section is divided from the lower bridge section by a pair of tear seams (34, 35); and being further characterized in that; a plurality of risers are provided between the shroud and the bridge section for concentrating stress at the tear seams created by upward movement of the shroud to tear the tear seams. an integrally molded panel having a framing wall surrounding an instrument cluster with an upper collar section and a lower bridge section, and the panel having a shroud extending downward from the bridge section; the instrument panel trim apparatus being characterized in that;
Pressure sensor catheter (102, 102', 202, 302, 402, 502, 602, 702, 802, 902, 1002, 1102) for measuring a pressure on a distal side of a flow constriction in a body lumen, such as a stenosis, and/or for measuring a pressure difference between a pressure on a proximal side of the flow constriction and a pressure on the distal side of the flow constriction, comprising: - a catheter body (124, 224, 324, 424, 524, 624, 824, 924, 1024) for introduction of the pressure sensor catheter into the body lumen; - a pressure sensor (128, 228, 328, 428', 528, 728, 828, 972, 1028, 1128); and - at least one pressure transfer tube (106, 206, 306, 406, 506, 606, 706, 806, 906, 1006, 1106) for passing through the flow constriction, the tube being connected to and extending from the pressure sensor for transferring the pressure at the distal side of the flow constriction via the tube to the pressure sensor, wherein the catheter body comprises the sensor at a sensor position, such that the sensor in use is positioned in the body lumen, characterized in that a distal end region of the pressure sensor catheter comprising the distal end region of the pressure transfer tube has a smaller maximum outer diameter than the outer diameter of the pressure sensor catheter at the sensor position. - a catheter body (124, 224, 324, 424, 524, 624, 824, 924, 1024) for introduction of the pressure sensor catheter into the body lumen; - a pressure sensor (128, 228, 328, 428', 528, 728, 828, 972, 1028, 1128); and - at least one pressure transfer tube (106, 206, 306, 406, 506, 606, 706, 806, 906, 1006, 1106) for passing through the flow constriction, the tube being connected to and extending from the pressure sensor for transferring the pressure at the distal side of the flow constriction via the tube to the pressure sensor, wherein the catheter body comprises the sensor at a sensor position, such that the sensor in use is positioned in the body lumen, characterized in that a distal end region of the pressure sensor catheter comprising the distal end region of the pressure transfer tube has a smaller maximum outer diameter than the outer diameter of the pressure sensor catheter at the sensor position.
A method for calculating an active time, the method comprising: receiving, by a User Equipment, UE, a sequence number of a current System Frame Number, SFN, cycle in an extended Discontinuous Reception, DRX, cycle, sent by a network side; and calculating, by the UE, an active time of the UE according to the sequence number of the current SFN cycle in the extended DRX cycle in combination with a preset length of the extended DRX cycle; said method being characterized in that, if the UE is in a connected state, then the step of calculating, by the UE, the active time of the present UE according to the sequence number of the current SFN cycle in the extended DRX cycle in combination with the preset length of the extended DRX cycle comprises: determining, by the UE, a sequence number of a sub-frame including the active time according to a preset sub-frame offset; and calculating, by the UE, a sequence number of a radio frame including the active time according to the sequence number of the current SFN cycle in the extended DRX cycle, notified of by the network side, in combination with the calculated sequence number of the sub-frame comprising the active time, the preset sub-frame offset, and the length of the extended DRX cycle. receiving, by a User Equipment, UE, a sequence number of a current System Frame Number, SFN, cycle in an extended Discontinuous Reception, DRX, cycle, sent by a network side; and calculating, by the UE, an active time of the UE according to the sequence number of the current SFN cycle in the extended DRX cycle in combination with a preset length of the extended DRX cycle; said method being characterized in that, if the UE is in a connected state, then the step of calculating, by the UE, the active time of the present UE according to the sequence number of the current SFN cycle in the extended DRX cycle in combination with the preset length of the extended DRX cycle comprises: determining, by the UE, a sequence number of a sub-frame including the active time according to a preset sub-frame offset; and calculating, by the UE, a sequence number of a radio frame including the active time according to the sequence number of the current SFN cycle in the extended DRX cycle, notified of by the network side, in combination with the calculated sequence number of the sub-frame comprising the active time, the preset sub-frame offset, and the length of the extended DRX cycle.
An attachment device for attachment of a trailing arm to a track support beam intended to be connected, via said trailing arm, to a center beam (30, 32) or other structural element situated between two track assemblies of a tracked vehicle, wherein the attachment device is secured to the track support beam and configured to attach the trailing arm to the track support beam via an axis running above and substantially centrally along an upper side of the track support beam, in the longitudinal direction of the track support beam, characterized in that the attachment device is constituted by a part made of solid material, wherein the solid part constituting the attachment device is configured to be inserted into a recess in the track support beam, in which it is secured to the track support beam..