mhurhangee/ep-ind-claims huggingface dataset:
A filter circuit with harmonic compensation, configured to be coupled to a bridge rectifying circuit receiving an AC voltage (Vac) and an input capacitor (Cin), the bridge rectifying circuit comprising a live wire end, a neutral wire end, a positive end, and a negative end, the filter circuit comprising a freewheeling capacitor (Cf), a first end of the freewheeling capacitor (Cf) coupled to the live wire end, a freewheeling switch, a first end of the freewheeling switch coupled to a second end of the freewheeling capacitor (Cf), and a second end of the freewheeling switch coupled to the positive end and the input capacitor (Cin), and a unidirectional switch, characterized in that a first end of the unidirectional switch is coupled to the second end of the freewheeling capacitor (Cf) and the first end of the freewheeling switch, and a second end of the unidirectional switch is configured to receive a voltage source (Vs), wherein a power generation circuit is configured to supply the voltage source (Vs) to a node between the freewheeling capacitor (Cf) and the freewheeling switch through the unidirectional switch, and to charge the freewheeling capacitor (Cf), and the freewheeling switch is configured to provide a discharge path from the freewheeling capacitor (Cf) to the input capacitor (Cin), wherein a first conduction voltage of the freewheeling switch is greater than a second conduction voltage between the live wire end and the positive end of the bridge rectifying circuit. a freewheeling capacitor (Cf), a first end of the freewheeling capacitor (Cf) coupled to the live wire end, a freewheeling switch, a first end of the freewheeling switch coupled to a second end of the freewheeling capacitor (Cf), and a second end of the freewheeling switch coupled to the positive end and the input capacitor (Cin), and a unidirectional switch, characterized in that a first end of the unidirectional switch is coupled to the second end of the freewheeling capacitor (Cf) and the first end of the freewheeling switch, and a second end of the unidirectional switch is configured to receive a voltage source (Vs), wherein a power generation circuit is configured to supply the voltage source (Vs) to a node between the freewheeling capacitor (Cf) and the freewheeling switch through the unidirectional switch, and to charge the freewheeling capacitor (Cf), and the freewheeling switch is configured to provide a discharge path from the freewheeling capacitor (Cf) to the input capacitor (Cin), wherein a first conduction voltage of the freewheeling switch is greater than a second conduction voltage between the live wire end and the positive end of the bridge rectifying circuit.
A positive electrode active material for non-aqueous electrolyte secondary battery, comprising: lithium-nickel composite oxide particles having a layer structure of hexagonal system; and a lithium tungstate coating film disposed on a surface of secondary particles of the lithium-nickel composite oxide particles, wherein the positive electrode active material for non-aqueous electrolyte secondary battery includes, as metallic elements, lithium (Li), nickel (Ni), cobalt (Co), element M which is at least one element selected from Mn, V, Mg, Mo, Nb, Ti, Ca, Cr, Zr, Ta, and Al, and tungsten, wherein a ratio of amount of substance in the metallic elements contained is Li:Ni:Co:M:W = a:1-x-y:x:y:z, wherein 0.97≤a≤1.25, 0≤x≤0.35, 0≤y≤0.35, and 0.005≤z≤0.030, and wherein a ratio of a maximum tungsten concentration to an average tungsten concentration is 5 or more and 25 or less when a line analysis is performed by STEM-EDX on a particle cross-section of the positive electrode active material for non-aqueous electrolyte secondary battery. lithium-nickel composite oxide particles having a layer structure of hexagonal system; and a lithium tungstate coating film disposed on a surface of secondary particles of the lithium-nickel composite oxide particles, wherein the positive electrode active material for non-aqueous electrolyte secondary battery includes, as metallic elements, lithium (Li), nickel (Ni), cobalt (Co), element M which is at least one element selected from Mn, V, Mg, Mo, Nb, Ti, Ca, Cr, Zr, Ta, and Al, and tungsten, wherein a ratio of amount of substance in the metallic elements contained is Li:Ni:Co:M:W = a:1-x-y:x:y:z, wherein 0.97≤a≤1.25, 0≤x≤0.35, 0≤y≤0.35, and 0.005≤z≤0.030, and wherein a ratio of a maximum tungsten concentration to an average tungsten concentration is 5 or more and 25 or less when a line analysis is performed by STEM-EDX on a particle cross-section of the positive electrode active material for non-aqueous electrolyte secondary battery.
A driving and dosing device for an injection device for administering a liquid product, wherein a product dose to be administered is set with the driving and dosing device, comprising: a) a housing, b) a dose indicating element, over the periphery of which a dose scale is arranged, c) a pointing device and a dosing element, which can be gripped by the user of the driving and dosing device, wherein by rotating the dosing element relative to the pointing device in order to set the dose to be administered, the dose indicating element is rotated to move relative to the pointing device and about an axis of rotation, and a value of the dose scale corresponding to the set dose can be read off by means of the pointing device, d) a discharge spring, which stores the energy necessary for discharging of the product, wherein the discharge spring is cocked by rotating the dosing element, e) an actuating element that is actuated by the user of the driving and dosing device in order to discharge the set product dose, characterized in that f) the driving and dosing device comprises a clutch (2b, 3c) that couples the dosing element to the discharge spring in such a manner that the discharge spring is cocked by rotating the dosing element when the actuating element is not actuated, wherein the clutch (2b, 3c) decouples the dosing element from the discharge spring when the actuating element is actuated. a) a housing, b) a dose indicating element, over the periphery of which a dose scale is arranged, c) a pointing device and a dosing element, which can be gripped by the user of the driving and dosing device, wherein by rotating the dosing element relative to the pointing device in order to set the dose to be administered, the dose indicating element is rotated to move relative to the pointing device and about an axis of rotation, and a value of the dose scale corresponding to the set dose can be read off by means of the pointing device, d) a discharge spring, which stores the energy necessary for discharging of the product, wherein the discharge spring is cocked by rotating the dosing element, e) an actuating element that is actuated by the user of the driving and dosing device in order to discharge the set product dose, characterized in that f) the driving and dosing device comprises a clutch (2b, 3c) that couples the dosing element to the discharge spring in such a manner that the discharge spring is cocked by rotating the dosing element when the actuating element is not actuated, wherein the clutch (2b, 3c) decouples the dosing element from the discharge spring when the actuating element is actuated.
A method, comprising: receiving a packet at a network device of a plurality of network devices in a fully connected multidimensional network, wherein the packet is to be routed to a destination network device; determining, by a routing engine of the network device, all possible candidate output ports for the packet to be routed to the destination network device, the candidate output ports corresponding to candidate minimal paths and candidate non-minimal paths between the network device and the destination network device; selecting, by the routing engine, an optimal output port among all the candidate output ports by i) calculating a weight for each candidate path, the weight being based on a combination of a number of hops of the candidate path and a detected congestion along the candidate path, and ii) associating the weight to the corresponding candidate output port; and routing, by the routing engine, the packet to a next hop in the network through the selected optimal output port and using a next distance class that is different from a distance class that was used to receive the packet at the network device, wherein a distance class comprises a group of channel resources that is grouped in a numbered class. receiving a packet at a network device of a plurality of network devices in a fully connected multidimensional network, wherein the packet is to be routed to a destination network device; determining, by a routing engine of the network device, all possible candidate output ports for the packet to be routed to the destination network device, the candidate output ports corresponding to candidate minimal paths and candidate non-minimal paths between the network device and the destination network device; selecting, by the routing engine, an optimal output port among all the candidate output ports by i) calculating a weight for each candidate path, the weight being based on a combination of a number of hops of the candidate path and a detected congestion along the candidate path, and ii) associating the weight to the corresponding candidate output port; and routing, by the routing engine, the packet to a next hop in the network through the selected optimal output port and using a next distance class that is different from a distance class that was used to receive the packet at the network device, wherein a distance class comprises a group of channel resources that is grouped in a numbered class.
A method of manufacturing a multi-material fiber comprising at least one electrically-connectable device, the method comprising the steps of: positioning each electrically-connectable device within a corresponding pocket provided in a preform material; positioning a first electrical conductor longitudinally within a first conduit provided in the preform material; drawing the multi-material fiber by causing the preform material to flow, such that the first electrical conductor extends within the multi-material fiber along a longitudinal axis thereof and makes an electrical contact with a first electrode located on each electrically-connectable device; and overcoating the drawn multi-material fiber with a thermoplastic elastomer material, wherein, at least one of (i) a metallurgical bond is formed between the first electrical conductor and the first electrode while drawing the multi-material fiber or (ii) after drawing the multi-material fiber, the first electrical conductor is located substantially along a neutral axis of the multi-material fiber. positioning each electrically-connectable device within a corresponding pocket provided in a preform material; positioning a first electrical conductor longitudinally within a first conduit provided in the preform material; drawing the multi-material fiber by causing the preform material to flow, such that the first electrical conductor extends within the multi-material fiber along a longitudinal axis thereof and makes an electrical contact with a first electrode located on each electrically-connectable device; and overcoating the drawn multi-material fiber with a thermoplastic elastomer material, wherein, at least one of (i) a metallurgical bond is formed between the first electrical conductor and the first electrode while drawing the multi-material fiber or (ii) after drawing the multi-material fiber, the first electrical conductor is located substantially along a neutral axis of the multi-material fiber.
Self-propelled construction machine, in particular road milling machine, recycler or stabiliser, with a machine frame and an operating mechanism, wherein the operating mechanism comprises an operating drum and a drum housing surrounding the operating drum, that is closed off to the ground by at least one sealing element (7B; 7A', 36), and at least one mechanism for raising and lowering the at least one sealing element, which is configured so that the sealing element contacts the ground with a predetermined contact force, when the sealing element is not raised, characterised in that the at least one mechanism for raising and lowering the at least one sealing element (7B, 7A', 36) has a measuring unit (26, 26'), which is configured so that the measuring unit measures a force component acting on the sealing element when it encounters an obstacle, which force component being a substantially horizontal force component, and a control unit, which is configured so that the control unit generates a control signal for raising the sealing element when the force component measured by the measuring unit is greater than a predetermined limit value, so that the sealing element is raised.
A thermal transfer image-receiving sheet comprising a pattern layer, a masking layer, an intermediate layer, and a receiving layer provided in this order on a substrate, a portion of the surface of the pattern layer being exposed, the receiving layer being a solvent-based receiving layer containing a solvent-based resin and a silicone oil, the intermediate layer being a water-based intermediate layer containing a water-based resin, and the masking layer being a solvent-based masking layer containing a solvent-based resin and a colorant. a pattern layer, a masking layer, an intermediate layer, and a receiving layer provided in this order on a substrate, a portion of the surface of the pattern layer being exposed, the receiving layer being a solvent-based receiving layer containing a solvent-based resin and a silicone oil, the intermediate layer being a water-based intermediate layer containing a water-based resin, and the masking layer being a solvent-based masking layer containing a solvent-based resin and a colorant.
Cleaning system for a glazed surface of a vehicle, comprising a spraying device for spraying cleaning fluid onto the glazed surface and a distribution network for supplying the cleaning fluid to the spraying device, the spraying device or the distribution network comprising a mixing element (36; 56; 120, 122) with at least one cleaning fluid inlet, an air inlet and a spray outlet, the mixing element (36; 56; 120, 122) comprising at least one duct (40, 41) through which the cleaning fluid is to flow and which is in communication with the cleaning fluid inlet and the spray outlet, the mixing element (36; 56; 120, 122) comprising a channel (42, 43) for air flow in communication with the air inlet and the duct (40, 41), wherein the mixing element (36; 56; 120, 122) comprises a one-piece element which delimits the duct (40, 41) for the cleaning fluid to flow through and the channel (42, 43) for air to flow through, characterized in that wherein the spray device is a spray ramp being configured to be mounted on or in a wiper blade (8, 9), the spray ramp extending along the wiper blade (8, 9).
Glycosaminoglycan binding monomeric fusion protein comprising a. a GAG binding protein with increased GAG binding affinity and reduced G-protein coupled receptor (GPCR) activity compared to wild type protein, wherein said GAG binding protein is MCP-1 comprising the amino acid substitutions Y13A S21K Q23K according to the amino acid numbering of SEQ ID No. 1, and b. a human serum albumin sequence linked to the C-terminus of the protein, and c. a linker sequence comprising the sequence GGGGS (SEQ ID No. 5) between said HSA sequence and said GAG binding protein. a. a GAG binding protein with increased GAG binding affinity and reduced G-protein coupled receptor (GPCR) activity compared to wild type protein, wherein said GAG binding protein is MCP-1 comprising the amino acid substitutions Y13A S21K Q23K according to the amino acid numbering of SEQ ID No. 1, and b. a human serum albumin sequence linked to the C-terminus of the protein, and c. a linker sequence comprising the sequence GGGGS (SEQ ID No. 5) between said HSA sequence and said GAG binding protein.
A plastic preform suitable for forming a bottle, comprising: a neck portion adapted to engage a closure and including a support ring at its lowermost point, the neck portion having a first wall thickness; and an elongated body portion including a generally cylindrical wall portion and an end cap; wherein an upper segment of the body portion adjacent to the support ring has a second wall thickness (46C, 48C) substantially similar to the first wall thickness and less than a third wall thickness in a lower segment of the body portion, characterized in that the second wall thickness (46C, 48C) is 0.3 mm to 0.9 mm. a neck portion adapted to engage a closure and including a support ring at its lowermost point, the neck portion having a first wall thickness; and an elongated body portion including a generally cylindrical wall portion and an end cap; wherein an upper segment of the body portion adjacent to the support ring has a second wall thickness (46C, 48C) substantially similar to the first wall thickness and less than a third wall thickness in a lower segment of the body portion, characterized in that the second wall thickness (46C, 48C) is 0.3 mm to 0.9 mm.
Device for immobilising a goods transport vehicle during the docking phases of said vehicle, comprising a positioned guiding means, a carriage (1.2) that moves along a guiding means and a means of moving said carriage (1.2) along the guiding means, the device being a device for immobilising a trailer having wheels only at the rear and a king pin (2.1) for coupling it to a tractor unit, the device comprising a base (1.1) anchored in the ground and forming a rail serving as a guiding means for the sliding carriage (1.2); said carriage (1.2) is equipped with at least one lifting arm (1.5) extended by a blocking head (1.6) fitted with a part (1.7) for supporting the king pin of the trailer, the lifting arm (1.5) and the blocking head (1.6) forming a removable prop, the sliding base being placed in the longitudinal axis of the docked trailer, axis where the rotation circle situated underneath the trailer is located for the coupling with the king pin, wherein the carriage (1.2) has a safety flap (1.3), characterised in that said device comprises: a remote technical column enabling said device to be operated without having to go underneath the trailer, the technical column comprising a siren with a light, the flap being configured so that when it is in the up position, if a tractor unit attempts to come and connect to the trailer, the safety flap (1.3) will be pushed by the vehicle's rear bumper and trigger the siren and light situated on the technical column to indicate to the driver that he must stop immediately before destroying the device.
Machine for filling bottles, cartridges, syringes and the like, generally defined as containers, the machine comprising a chamber with an inlet and outlet for containers and at least one intermediate operating station in which the containers are subjected to specific processing, further comprising at least one handling device with several degrees of freedom, automatically controlled and reprogrammable and at least one conduit for washing and sanitising fluids, and a dispensing nozzle attached directly to a free end of the conduit, said dispensing nozzle being configured to be joined to an adjustable end of the at least one handling device for washing and sanitising said chamber and the containers contained therein; characterized in that said at least one conduit is entirely located outside of said handling device and in that it has a flexible portion protruding inside said chamber, said dispensing nozzle having shape and dimensions matching to those of clamping elements arranged at the adjustable end of said handling device, so that a removable coupling between said dispensing nozzle and said clamping elements is achieved.
A B-pillar that is formed by a plate blank (20, 21) to a hat profile with a central flange, two sides (13, 14) and two side flanges (15, 16) and has a reinforcement plate over part of its length that forms a double plate B-pillar, characterized in that the reinforcement plate extends over at least 1⁄4 of its length over the side flanges (15, 16) and narrows down at both its ends so that it does not extend out over the side flanges over part of its length.
An electrical junction box (1, 100, 130), comprising: a conductive input busbar; a conductive output busbar electrically connectable to the input busbar; a semiconductor relay electrically connected to the input busbar and the output busbar and configured to switch a connected state and a disconnected state of the input busbar and the output busbar; a substrate having mounted thereon a control circuit configured to output a control signal for controlling the semiconductor relay; and a control terminal electrically connecting the control circuit and the semiconductor relay to each other to output the control signal to the semiconductor relay, wherein the semiconductor relay is mounted on at least one of the input busbar and the output busbar, and the input busbar, the output busbar, and the semiconductor relay are disposed away from the substrate, an insulating portion (50, 120, 150) covering connection portions of the semiconductor relay with the input busbar and the output busbar and a connection portion of the semiconductor relay with the control terminal by insulating material, characterized in that the insulating portion (50, 120, 150) has a leg portion (52, 122, 152) provided so as to protrude from a main body portion (51, 121, 151) toward the substrate, and the main body portion (51, 121, 151) is separated away from the substrate by the leg portion (52, 122, 152). a conductive input busbar; a conductive output busbar electrically connectable to the input busbar; a semiconductor relay electrically connected to the input busbar and the output busbar and configured to switch a connected state and a disconnected state of the input busbar and the output busbar; a substrate having mounted thereon a control circuit configured to output a control signal for controlling the semiconductor relay; and a control terminal electrically connecting the control circuit and the semiconductor relay to each other to output the control signal to the semiconductor relay, wherein the semiconductor relay is mounted on at least one of the input busbar and the output busbar, and the input busbar, the output busbar, and the semiconductor relay are disposed away from the substrate, an insulating portion (50, 120, 150) covering connection portions of the semiconductor relay with the input busbar and the output busbar and a connection portion of the semiconductor relay with the control terminal by insulating material, characterized in that the insulating portion (50, 120, 150) has a leg portion (52, 122, 152) provided so as to protrude from a main body portion (51, 121, 151) toward the substrate, and the main body portion (51, 121, 151) is separated away from the substrate by the leg portion (52, 122, 152).