mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a magnetic core in a magnetic alloy having a nanocrystallization structure resulting from a nanocrystallization heat treatment of an amorphous magnetic alloy capable of acquiring a nanocrystalline structure by heat treatment, having a chemical composition defined in the following way, in atomic %: [Fe 1-a Ni a]100-x-y-z-α-β-γCu x Si y B z Nb α M' β M" γ with a ≤ 0.3, 0.6 ≤ x ≤ 1.5, 10 ≤ y ≤ 17, 5 ≤ z ≤ 14, 2 ≤α ≤6, β ≤ 7, γ ≤ 8, M' being at least one of the elements V, Cr, Al and Zn, M" being at least one of the elements C, Ge, P, Ga, Sb, In and Be, preferably comprising in atomic %: 0.5% ≤ Cu ≤ 1,5% 2% ≤ Nb ≤ 4% 13% ≤ Si ≤ 16,5% 6% ≤ B ≤ 10% 0% ≤ Ni + Co ≤ 10% the remainder being iron and impurities resulting from the elaboration, the sum of the impurity contents being less than 1%, characterized in that it comprises at least one annealing under a longitudinal magnetic field and at least one annealing under a transverse magnetic field, both annealings under a magnetic field being carried out on the core of an alloy having a nanocrystalline structure, the annealing under longitudinal magnetic field having an efficiency coefficient E long and the annealing under a transverse magnetic field having an efficiency coefficient E trans, the efficiency parameter B long of the annealing under a longitudinal magnetic field and the efficiency parameter E trans of the annealing under a transverse magnetic field being such that: 0.4 × E long + 130 ≤ E trans ≤ 0.3 E long + 220 annealing under a magnetic field is a heat treatment comprising a rise in temperature up to a holding temperature Tm, maintaining this temperature and cooling, during this heat treatment, the magnetic core being subject to a magnetic field, the efficiency parameter E of an annealing under a magnetic field is equal to the integral relatively to time of the difference between the treatment temperature T(t) at instant t, when the latter is above 100°C, and 100°C, over the period during which the applied magnetic field has an intensity greater than a minimum efficiency value H min corresponding to the minimum value of the magnetic field required for magnetically saturating the magnetic core, the temperature being expressed in °C and the time being expressed in hours.
Fastening system for fastening two first and second profile bars (16, 18), which comprise in each case at least one first and second groove (12, 14), at a predeterminable angle with respect to one another, comprising a fastening body which, in the mounted state, is attached to the first and second profile bars (16, 18) by means of first and second hammer head screws (22, 24) which are introduced in the first and second grooves (12, 14) and have first and second screw nuts (26, 28), wherein the fastening body comprises, in the manner of a feather key, first and second projections (30, 32) which, in the mounted state, project into first and second groove openings (34, 36), characterised in that the projections (30, 32) are each provided with at least one first and one second screw bore (38, 40) which project jaw-like in each case into one of the groove openings (34, 36), wherein the respective first and second hammer heads (42, 44) are in each case free-form heads which exert a twist action and which, during mounting under slight pressure, contact one another in each case only at two first and second groove flank points (46, 48) located far apart from one another, and are thereby automatically oriented in the groove longitudinal direction and subsequently enter into the groves (12, 14), wherein the slants of the surfaces of the hammer heads (42, 44) generate at these groove flank points (46, 48) an inwardly rotating moment, wherein, in the mounted state, the first and second shafts (50, 52) are located partially within the groove openings (34, 36) and on each hammer head screw (22, 24) at the transition between the hammer head (42, 44) and shaft (50, 52) first and second noses (54, 56) are arranged approximately diagonally with respect to one another and in the mounted state lie against the jaw-like screw bores (38, 40) in such a manner as to limit rotation.
A method for controlling a power generating subsystem that is connected to a power generating system at a point of interconnection, POI, the method comprising: receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter contributed by the power generating subsystem to the POI, the electrical parameter measured remote from the power generating subsystem prior to integration with electrical parameters from other power generating subsystems at the POI, the electrical parameter being one of power factor or reactive power and the first data signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal measured at the power generating subsystem and having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals by filtering a value difference between the first and second data signals and applying the correlation value to a setpoint value for the electrical parameter at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal to generate a setpoint command for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to achieve the setpoint value for the electrical parameter at the POI. receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter contributed by the power generating subsystem to the POI, the electrical parameter measured remote from the power generating subsystem prior to integration with electrical parameters from other power generating subsystems at the POI, the electrical parameter being one of power factor or reactive power and the first data signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal measured at the power generating subsystem and having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals by filtering a value difference between the first and second data signals and applying the correlation value to a setpoint value for the electrical parameter at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal to generate a setpoint command for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to achieve the setpoint value for the electrical parameter at the POI.
An optronic porthole which comprises a substrate with two faces (11, 12) with, on one of the faces of the substrate or on both faces, a stack of several heterostructures, each heterostructure being composed of at least two semi-conductive layers (31, 32) SC1, SC2, the SC1 layer being doped, the SC2 layer itself comprising a two-dimensional electron gas layer formed at the interface with the SC1 layer, the substrate and the layers being transparent in the 0.4 μm - 5 μm band, characterised in that it comprises an electrode in contact with all of the electron gas layers and a bi-periodic metallic grid which is buried in the stack, in contact with the electrode.
A composition for use in reducing nocturia symptoms comprising mint, green tea, ginger and optionally fruit or vegetable juice from one or more types of fruit or vegetable and water.
A clamp plate assembly for a print liquid supply, the clamp plate assembly characterized by a clamp plate comprising: two wedge-shaped forked ends (1038-1,1038-2) to facilitate clamping a spout to a container in which a print liquid reservoir is disposed; and a slot defined by the forked ends (1038-1,1038-2) to receive and retain the spout; and a back plate approximately orthogonal to the clamp plate. two wedge-shaped forked ends (1038-1,1038-2) to facilitate clamping a spout to a container in which a print liquid reservoir is disposed; and a slot defined by the forked ends (1038-1,1038-2) to receive and retain the spout; and
A dispersion comprising a dispersant, a disperse dye or pigment or both, and an aqueous solvent, wherein the dispersant comprises: from 1 to 50 wt% of at least one compound selected from the group consisting of acetylene glycols of formula below wherein R 1 and R 2 are each an alkyl group of 1 to 5 carbon atoms, and acetylene glycol ethoxylates of formula below wherein R 1 and R 2 are each an alkyl group of 1 to 5 carbon atoms, and "m" and "n" are each a positive number from 0.5 to 25 such that the sum m+n is from 1 to 40; and from 50 to 99 wt% of an arylphenol compound of formula below wherein "a" is an integer of 3 or 4, "b" is an integer from 15 to 30, and R is a styryl, benzyl or cumyl group, and wherein the aqueous solvent is water and/or a water-soluble organic solvent selected from the group consisting of methyl alcohol, ethyl alcohol, n-propyl alcohol, isopropyl alcohol, n-butyl alcohol, sec-butyl alcohol, tert-butyl alcohol, propylene glycol, dipropylene glycol, butylene glycol, triethylene glycol, 1,2,6-hexanetriol, thiodiglycol, hexylene glycol, diethylene glycol, ethylene glycol monomethyl ether, ethylene glycol monoethyl ether, diethylene glycol methyl ether, diethylene glycol ethyl ether, triethylene glycol monomethyl ether, triethylene glycol monoethyl ether, triethylene glycol monobutyl ether, and 1,3-dimethyl-2-imidazolidinone. from 1 to 50 wt% of at least one compound selected from the group consisting of acetylene glycols of formula below wherein R 1 and R 2 are each an alkyl group of 1 to 5 carbon atoms, and acetylene glycol ethoxylates of formula below wherein R 1 and R 2 are each an alkyl group of 1 to 5 carbon atoms, and "m" and "n" are each a positive number from 0.5 to 25 such that the sum m+n is from 1 to 40; and from 50 to 99 wt% of an arylphenol compound of formula below wherein "a" is an integer of 3 or 4, "b" is an integer from 15 to 30, and R is a styryl, benzyl or cumyl group, and wherein the aqueous solvent is water and/or a water-soluble organic solvent selected from the group consisting of methyl alcohol, ethyl alcohol, n-propyl alcohol, isopropyl alcohol, n-butyl alcohol, sec-butyl alcohol, tert-butyl alcohol, propylene glycol, dipropylene glycol, butylene glycol, triethylene glycol, 1,2,6-hexanetriol, thiodiglycol, hexylene glycol, diethylene glycol, ethylene glycol monomethyl ether, ethylene glycol monoethyl ether, diethylene glycol methyl ether, diethylene glycol ethyl ether, triethylene glycol monomethyl ether, triethylene glycol monoethyl ether, triethylene glycol monobutyl ether, and 1,3-dimethyl-2-imidazolidinone.
Use of a composition comprising or consisting of: a) at least one 2-ethylhexyl ester selected from the group consisting of 2-ethylhexyl benzoate, 2-ethylhexyl palmitate, 2-ethylhexyl cocoate, 2-ethylhexyl stearate, 2-ethylhexyl acetate; b) alcohol consisting of ethyl alcohol and/or isopropyl alcohol, for dehydrating and diaphanizing a biological sample in a biological sample processing.
Method for producing a shaped body from a curable material in the form of a mineral binder composition, wherein the curable material is applied in layers in an additive free-space method, by means of a print head that is movable in at least one direction in space and wherein a height of an individual layer is 0.1-10 cm and wherein an application rate of the curable material and the development of strength over time (101, 102, 103) of the curable material are matched to one another and a movement speed of the print head is set according to the development of strength over time of the curable material, characterized in that the application rate of the curable material is changed as the number of layers increases.
A track roller bearing (200, 500) comprising: a single piece outer ring (210, 510); a single piece inner ring (220, 520) positioned in the single piece outer ring (210, 510); a plurality of rolling elements (551A, 551B; 603A, 603B) disposed between and in rolling engagement with the single piece inner ring (220, 520) and the single piece outer ring (210,510); wherein the track roller bearing (200, 500) is configured to be disposed in an actuation system of an aircraft, characterized in that: the single piece inner ring (220, 520) is manufactured from a corrosion resistant nitrogen steel (CREN) material; and each of the plurality of rolling elements (551A, 551B; 603A, 603B) is a needle roller. a single piece outer ring (210, 510); a single piece inner ring (220, 520) positioned in the single piece outer ring (210, 510); a plurality of rolling elements (551A, 551B; 603A, 603B) disposed between and in rolling engagement with the single piece inner ring (220, 520) and the single piece outer ring (210,510); wherein the track roller bearing (200, 500) is configured to be disposed in an actuation system of an aircraft, characterized in that: the single piece inner ring (220, 520) is manufactured from a corrosion resistant nitrogen steel (CREN) material; and each of the plurality of rolling elements (551A, 551B; 603A, 603B) is a needle roller. the single piece inner ring (220, 520) is manufactured from a corrosion resistant nitrogen steel (CREN) material; and each of the plurality of rolling elements (551A, 551B; 603A, 603B) is a needle roller.
A method for wireless transmitting a first data stream, the transmission being subject to periodic blockages, the method comprising: segmenting a first data stream into packets of a predetermined fixed-size for a burst-mode transmission over a wireless channel (103, 221), wherein the transmission is subject to a first periodic blockage; applying a forward error correction outer code to the packets of the first data stream for recovery of packets subjected to the first periodic blockage, wherein the forward error correction outer code comprises checksum packets added to the first data stream; interleaving the packets of the first data stream by using parameters, wherein the parameters used for interleaving by an interleaver are set to capture a number of blocked packets that does not exceed the capabilities of the forward error correcting coding wherein the packets of the first data stream are interleaved based on an interleaving of a depth based at least in part on a ratio of a blockage free duration between two consecutive blockages of the first periodic blockage to a duration of each blockage of the first periodic blockage; wherein interleaving is configured in a manner to ensure that only one blocked packet is included in a group of the first data stream reflected by each of checksum packets; applying a forward error correction inner code to each packet of the first data stream; and transmitting the first data stream over the wireless channel. segmenting a first data stream into packets of a predetermined fixed-size for a burst-mode transmission over a wireless channel (103, 221), wherein the transmission is subject to a first periodic blockage; applying a forward error correction outer code to the packets of the first data stream for recovery of packets subjected to the first periodic blockage, wherein the forward error correction outer code comprises checksum packets added to the first data stream; interleaving the packets of the first data stream by using parameters, wherein the parameters used for interleaving by an interleaver are set to capture a number of blocked packets that does not exceed the capabilities of the forward error correcting coding wherein the packets of the first data stream are interleaved based on an interleaving of a depth based at least in part on a ratio of a blockage free duration between two consecutive blockages of the first periodic blockage to a duration of each blockage of the first periodic blockage; wherein interleaving is configured in a manner to ensure that only one blocked packet is included in a group of the first data stream reflected by each of checksum packets; applying a forward error correction inner code to each packet of the first data stream; and transmitting the first data stream over the wireless channel.
Shoe, in particular a hand-sewn shoe, comprising: - an outsole having an inner surface, a circumferential inner collar and a braided edge; - a Strobel sole connected to the outsole via the inner surface; - an upper connected to the inner collar of the outsole; - a top seam formed along the braided edge; - a side seam formed on the outside of the outsole, the top seam and the side seam being braided into the material of the outsole without penetrating the inner collar of the outsole. - an outsole having an inner surface, a circumferential inner collar and a braided edge; - a Strobel sole connected to the outsole via the inner surface; - an upper connected to the inner collar of the outsole; - a top seam formed along the braided edge; - a side seam formed on the outside of the outsole,
A camshaft assembly comprising an inner shaft, an outer tube surrounding and rotatable relative to the inner shaft, and two groups of cam lobes (16,18) mounted on the outer tube, the first group of cam lobes being fast in rotation with the outer tube, the second group of cam lobes being rotatably mounted on the outer surface of the tube and connected for rotation with the inner shaft by means of driving members, characterised in that, in order to compensate for misalignment between the inner shaft and the second group of cam lobes resulting from manufacturing inaccuracies, the driving members are constituted by a compound driving pin formed of a plurality of parts (50; 60; 70; 80; 90) having contact surfaces for mating with the inner shaft of the camshaft and the cam lobes on the outer tube, the contact surfaces being movable to allow them to be separately aligned with the inner shaft and the cam lobes during assembly and being lockable in situ to maintain their correct alignment after assembly.
A mobile communication device, configured for Non Access Stratum, NAS, signaling low priority, comprising: a wireless module adapted to perform wireless transmissions and receptions to and from a service network supporting use of EXTENDED SERVICE REQUEST messages for packet services; a controller module adapted to receive a message that the service network supports use of EXTENDED SERVICE REQUEST messages for packet services; and wherein the controller module is further adapted to originate a SERVICE REQUEST message for requesting emergency bearer services in an EMM IDLE mode, and adapted to transmit an RRC CONNECTION REQUEST message comprising an establishment cause indicating an emergency case to the service network via the wireless module in response to originating the SERVICE REQUEST message, wherein the emergency bearer services are prioritized in an Access Stratum, AS, layer in response to the establishment cause indicating the emergency case, wherein the AS layer relates to the mobile communication device and the service network and wherein the prioritization of the AS layer is performed at both the mobile communication device and the service network. a wireless module adapted to perform wireless transmissions and receptions to and from a service network supporting use of EXTENDED SERVICE REQUEST messages for packet services; a controller module adapted to receive a message that the service network supports use of EXTENDED SERVICE REQUEST messages for packet services; and wherein the controller module is further adapted to originate a SERVICE REQUEST message for requesting emergency bearer services in an EMM IDLE mode, and adapted to transmit an RRC CONNECTION REQUEST message comprising an establishment cause indicating an emergency case to the service network via the wireless module in response to originating the SERVICE REQUEST message, wherein the emergency bearer services are prioritized in an Access Stratum, AS, layer in response to the establishment cause indicating the emergency case, wherein the AS layer relates to the mobile communication device and the service network and wherein the prioritization of the AS layer is performed at both the mobile communication device and the service network.
Apparatus for the realization of cartridges for firearms, comprising a hemming element having a central axis (H; K) and rotating around said central axis (H; K), said hemming element being suitable for the realization of the closure of the cartridge case of a cartridge, said cartridge case having an end portion comprising sectors bent substantially 90 degrees and whose extreme edges are directed towards the central axis of the hemming element, wherein said hemming element comprises a base (13; 53) comprising a central portion (18; 58) adapted to abut on the bent sectors of the cartridge case, a projecting element (22; 74) being comprised and protruding from the central portion (18; 58) and having a free end (23; 75), said projecting element (22; 74) being adapted to come into contact with the extreme edges of the sectors of the cartridge case; characterized by the fact that the projecting element (22; 74) is disposed laterally with respect to the central axis (H; K) of the hemming element.
Mechanism with coaxial disengageable wheels for a timepiece movement including an input wheel, an output wheel, a hub, and a jumper mechanism including a spring and positioning elements defining a certain number of discrete angular positions of the input wheel with respect to the output wheel around an axis of rotation, the axis of rotation defining an axial direction, the positioning elements including hollow elements and protruding elements, the spring being configured to apply an elastic force pushing the protruding elements against the hollow elements to couple the wheels to each other below an disengagement torque, characterized in that the protruding elements and the hollow elements extend in the axial direction and the spring is configured to apply an elastic force in the axial direction.