mhurhangee/ep-ind-claims huggingface dataset:
A high voltage direct current (HVDC) transmission system comprising: a rectifier configured to convert alternating current power into DC power; an inverter configured to convert the DC power into the AC power; a DC transmission line (W1, W2) configured to transmit, to the inverter, the DC power obtained through conversion by the rectifier; a first active power measurement unit configured to measure first active power input to the rectifier; a second active power measurement unit configured to measure second active power output from the inverter; and a first control unit configured to detect an abnormal voltage on the DC transmission line (W1, W2) based on the first and second active power measured, characterized in that the first control unit is further configured to: confirm that there is the abnormal voltage on the DC transmission line (W1, W2), when a ratio of the second active power to the first active power is out of a reference ratio range, wherein the first active power measurement unit measures an AC current and an AC voltage input to the rectifier to measure the first active power, the second active power measurement unit measures an AC current and an AC voltage output from the inverter to measure the second active power. a rectifier configured to convert alternating current power into DC power; an inverter configured to convert the DC power into the AC power; a DC transmission line (W1, W2) configured to transmit, to the inverter, the DC power obtained through conversion by the rectifier; a first active power measurement unit configured to measure first active power input to the rectifier; a second active power measurement unit configured to measure second active power output from the inverter; and a first control unit configured to detect an abnormal voltage on the DC transmission line (W1, W2) based on the first and second active power measured, characterized in that the first control unit is further configured to: confirm that there is the abnormal voltage on the DC transmission line (W1, W2), when a ratio of the second active power to the first active power is out of a reference ratio range, wherein the first active power measurement unit measures an AC current and an AC voltage input to the rectifier to measure the first active power, the second active power measurement unit measures an AC current and an AC voltage output from the inverter to measure the second active power. confirm that there is the abnormal voltage on the DC transmission line (W1, W2), when a ratio of the second active power to the first active power is out of a reference ratio range, wherein the first active power measurement unit measures an AC current and an AC voltage input to the rectifier to measure the first active power, the second active power measurement unit measures an AC current and an AC voltage output from the inverter to measure the second active power. the first active power measurement unit measures an AC current and an AC voltage input to the rectifier to measure the first active power, the second active power measurement unit measures an AC current and an AC voltage output from the inverter to measure the second active power.
A stretchable structure of an absorbent article, comprising: a first sheet layer made of a nonwoven fabric; a second sheet layer made of a nonwoven fabric and opposed to one side surface of the first sheet layer; and a plurality of elongated elastically stretchable members provided along the stretchable direction at intervals from each other between the first sheet layer and the second sheet layer, wherein the first sheet layer and the second sheet layer have sheet bonded portions bonded via a hot melt adhesive disposed in a striped pattern that is intermittent in the longitudinal direction of the elastically stretchable members and continuously elongated in the direction intersecting with the elastically stretchable members, and either one of the first sheet layer and the second sheet layer is made of a spunbond nonwoven fabric, and the other sheet layer is made of an air-through nonwoven fabric and has a fluffy surface on the spunbond nonwoven fabric side surface thereof. a first sheet layer made of a nonwoven fabric; a second sheet layer made of a nonwoven fabric and opposed to one side surface of the first sheet layer; and a plurality of elongated elastically stretchable members provided along the stretchable direction at intervals from each other between the first sheet layer and the second sheet layer, wherein the first sheet layer and the second sheet layer have sheet bonded portions bonded via a hot melt adhesive disposed in a striped pattern that is intermittent in the longitudinal direction of the elastically stretchable members and continuously elongated in the direction intersecting with the elastically stretchable members, and either one of the first sheet layer and the second sheet layer is made of a spunbond nonwoven fabric, and the other sheet layer is made of an air-through nonwoven fabric and has a fluffy surface on the spunbond nonwoven fabric side surface thereof.
A gas turbine engine component comprising: a conformal surface; an array of resistance temperature detector sensors (114; 402; 500) disposed across at least a portion of the conformal surface; and a plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) deposited on said conformal surface and connecting each of said RTD sensors (114...500) to a controller: characterised in that the plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) connect each of said RTD sensors (114...500) to the controller via a corresponding four wire circuit, wherein each circuit trace (117...520) in said plurality of circuit traces (117...520) extends to or towards a circumferential edge of said conformal surface. a conformal surface; an array of resistance temperature detector sensors (114; 402; 500) disposed across at least a portion of the conformal surface; and a plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) deposited on said conformal surface and connecting each of said RTD sensors (114...500) to a controller: characterised in that the plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) connect each of said RTD sensors (114...500) to the controller via a corresponding four wire circuit, wherein each circuit trace (117...520) in said plurality of circuit traces (117...520) extends to or towards a circumferential edge of said conformal surface.
A high-tensile steel plate consisting of 0.02% to 0.1% C, at most 0.6% Si, 1.6% to 2.5% Mn, 0.1% to 0.7% Ni, 0.01% to 0.1% Nb, 0.005% to 0.03% Ti, at most 0.1% sol.Al, 0.001% to 0.006% N, 0% to 0.0025% B, 0% to 0.6% Cu, 0% to 0.8% Cr, 0% to 0.6% Mo, 0% to 0.1% V, 0% to 0.006% Ca, 0% to 0.006% Mg, 0% to 0.03% a rare earth element, at most 0.015% P, and at most 0.003% S, the balance consisting of Fe and impurities, said high-tensile steel plate having: a carbon equivalent Pcm in Expression in the range from 0.180% to 0.220%; a surface hardness of at most Vickers hardness of 285; a ratio of a martensite austenite constituent in the surface layer of at most 10%; a ratio of a mixed structure of ferrite and bainite on the inner side beyond the surface layer of at least 90%; a ratio of the bainite in the mixed structure of at least 10%, a lath of the bainite having a thickness of at most 1 μm and a length of at most 20 μm, and/or a length of the major axis of cementite precipitate grains in a lath of said bainite of at most 0.5 μm; and a segregation ratio as the ratio of the Mn concentration of a center segregation part to the Mn concentration of a part in a depth equal to 1/4 of the thickness of the plate from the surface of at most 1.3, with Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 B where the element symbols represent the % by mass of the respective elements. a carbon equivalent Pcm in Expression in the range from 0.180% to 0.220%; a surface hardness of at most Vickers hardness of 285; a ratio of a martensite austenite constituent in the surface layer of at most 10%; a ratio of a mixed structure of ferrite and bainite on the inner side beyond the surface layer of at least 90%; a ratio of the bainite in the mixed structure of at least 10%, a lath of the bainite having a thickness of at most 1 μm and a length of at most 20 μm, and/or a length of the major axis of cementite precipitate grains in a lath of said bainite of at most 0.5 μm; and a segregation ratio as the ratio of the Mn concentration of a center segregation part to the Mn concentration of a part in a depth equal to 1/4 of the thickness of the plate from the surface of at most 1.3, with Pcm = C + Si / 30 + Mn + Cu + Cr / 20 + Ni / 60 + Mo / 15 + V / 10 + 5 B where the element symbols represent the % by mass of the respective elements.
A data processing device comprising: - a scrambling means configured to scramble control data resulting in scrambled control data (K sig (s); - a padding means configured to pad the scrambled control data (K sig (s)) with zero padding bits resulting in post-padding scrambled control data (K bch) to adjust a data length of the scrambled control data (K sig (s)) to a target data length of a BCH error correction encoding, the control data being to be used for demodulation; - an error correction encoding means configured to perform the BCH error correction encoding on the post-padding scrambled control data (K bch) by appending BCH code parity bits to the end of the post-padding scrambled control data (K bch), thereby obtaining BCH code bits (K 1dpc); - an LDPC correction encoding means configured to append LDPC code parity bits after the BCH code parity bits of the BCH code bits (K 1dpc), to obtain LDPC code bits (N 1dpc), - a shortening means configured to puncture the LDPC code parity bits of the LDPC code bits (N 1dpc) and remove the zero padding bits from the LDPC code bits (N 1dpc), to obtain post-shortening LDPC code data (N post) for transmission, the punctured parity bits and the zero padding bits being not transmitted; and - a frame builder for creating a frame containing the post-shortening LDPC code data (N post) and multiplexing the frame into a DVB-T2 signal for transmission with one or more other frames, wherein the frame contains a preamble, which preamble includes a symbol including information identifying that the frame comprises the post-shortening LDPC code data (N post) containing the scrambled control data (K sig (s)). - a scrambling means configured to scramble control data resulting in scrambled control data (K sig (s); - a padding means configured to pad the scrambled control data (K sig (s)) with zero padding bits resulting in post-padding scrambled control data (K bch) to adjust a data length of the scrambled control data (K sig (s)) to a target data length of a BCH error correction encoding, the control data being to be used for demodulation; - an error correction encoding means configured to perform the BCH error correction encoding on the post-padding scrambled control data (K bch) by appending BCH code parity bits to the end of the post-padding scrambled control data (K bch), thereby obtaining BCH code bits (K 1dpc); - an LDPC correction encoding means configured to append LDPC code parity bits after the BCH code parity bits of the BCH code bits (K 1dpc), to obtain LDPC code bits (N 1dpc), - a shortening means configured to puncture the LDPC code parity bits of the LDPC code bits (N 1dpc) and remove the zero padding bits from the LDPC code bits (N 1dpc), to obtain post-shortening LDPC code data (N post) for transmission, the punctured parity bits and the zero padding bits being not transmitted; and - a frame builder for creating a frame containing the post-shortening LDPC
An acylated protease stabilized insulin wherein the acyl moiety is attached to a lysine residue at position B29 of A14E, B25H, desB27, desB30 human insulin wherein the acylated protease stabilized insulin is A14E, B25H, desB27, B29K(N ε octadecanedioyl-γGlu-OEG-OEG), desB30 human insulin.
A textile nonwoven sheet product which is capable of rolling, consisting of a mixture of recycled carbon fibers and thermoplastic fibers, which mixture is laid to a fibrous web by means of a carding process, is subjected to fleece formation and subsequently thermally bonded, wherein the mixing proportion of the thermoplastic fibers is in the range of 5 % by weight to 40 % by weight, and the carbon fiber proportion is in the range between 60 % by weight and 95 % by weight, characterized in that, for avoiding carbon fiber damages, the thermal bonding is performed under a low pressure of ≤ 20 N/cm 2 such that an impregnable fleece structure with open pores is the result, wherein the fiber fineness of the individual carbon fibers is in the range of ≤ 1 dtex and the cutting length is 30 mm to 80 mm as well as the fiber fineness of the thermoplastic single fibers is in the range between 1.0 dtex to 4.0 dtex and the cutting length is 30 mm to 70 mm.
Ventilation element comprising a body which encloses a beam-shaped body passage, and one or more damper blades which are each arranged in the body passage so as to be rotatable about an axis of rotation in order to form a closable air passage opening through the body passage, wherein each damper blade comprises a base part in the form of essentially a hexahedron with 3 pairs of two mutually opposite rectangular outer surfaces, being a first and second rotation surface, two sealing surfaces and two visible surfaces, respectively, wherein each axis of rotation extends through the respective base part and extends essentially at right angles to the rotation surfaces, for each said damper blade, the ventilation element comprises an axle which, in use, extends along the respective axis of rotation and wherein this axle comprises a passage which extends essentially at right angles to the longitudinal direction of the axle, characterized in that for each damper blade, the ventilation element comprises a locking means which is form-fitting with the passage and is configured to extend through the passage of the axle in such a way that the locking means extends on either side of the axle, and wherein each damper blade comprises a recess which opens in the first rotation surface, wherein this recess comprises a first part which extends along a longitudinal direction which forms an angle with the longitudinal direction of the first rotation surface of between 0° and 30°, opens in the first rotation surface along essentially its entire length, and in which the locking means is fittingly accommodable, and a second part which extends along the axis of rotation, opens in the first part and in which a part of the axle is fittingly accommodable, and wherein, in use, the locking means extends in the first part of the recess and portions of the axle extend in the first and the second part of the recess, respectively.
A handover processing method by a controller, the method characterized by comprising: receiving a first handover trigger message sent by a first network element node; and sending, in response to the receiving of the first handover trigger message, a second handover trigger message to a second network element node according to the first handover trigger message, to cause the second network element node to hand over a user equipment, UE, from the first network element node to the second network element node according to the second handover trigger message; said method being characterized in that the second handover trigger message is a scheduling message, wherein the first handover trigger message is either a measurement report sent from said UE and forwarded by the first network element node or a handover request message sent by said first network element node: and; the step of sending the second handover trigger message to the second network element node comprises: sending the scheduling message to the second network element node, to cause the second network element node to forward the scheduling message to the UE to complete the handover, wherein the scheduling message comprises resource assignment information, a modulation and coding message, codebook information, and power control information. receiving a first handover trigger message sent by a first network element node; and sending, in response to the receiving of the first handover trigger message, a second handover trigger message to a second network element node according to the first handover trigger message, to cause the second network element node to hand over a user equipment, UE, from the first network element node to the second network element node according to the second handover trigger message; said method being characterized in that the second handover trigger message is a scheduling message, wherein the first handover trigger message is either a measurement report sent from said UE and forwarded by the first network element node or a handover request message sent by said first network element node: and; the step of sending the second handover trigger message to the second network element node comprises: sending the scheduling message to the second network element node, to cause the second network element node to forward the scheduling message to the UE to complete the handover, wherein the scheduling message comprises resource assignment information, a modulation and coding message, codebook information, and power control information. sending the scheduling message to the second network element node, to cause the second network element node to forward the scheduling message to the UE to complete the handover, wherein the scheduling message comprises resource assignment information, a modulation and coding message, codebook information, and power control information.
A method for the determination of a plurality of distinct echo pulses (73, 77) originating from the same emitted signal train of an active 3D sensor (11, 13, 14) in order to provide distance measurements of the surroundings in front of the 3D sensor (11, 13, 14), whereas the signal train received by the 3D sensor (11, 13, 14) is subjected to predefined trigger conditions, so that only those peaks of the signal train that fulfill the predefined trigger conditions (61, 62; 71, 72) are taken into account in the determination of the distinct echo pulses, characterized in that for the determination of the distinct echo pulses (73, 77) at least two different and independent trigger conditions (61, 62; 71, 72) are applied in parallel by comparing signal amplitudes to two different trigger thresholds in separate pulse analyzers to the sequence of received signal pulses, wherein at least one trigger threshold is time dependent and at least one trigger condition (61, 62) is independent of time.
An apparatus suitable for depositing a group III metal nitride film on a substrate, the apparatus comprising: (a) a plasma generator arranged to generate a nitrogen plasma from a nitrogen source; (b) a reaction chamber suitable for reacting a reagent comprising a group III metal with a reactive nitrogen species derived from the nitrogen plasma so as to deposit a group III metal nitride on the substrate; (c) a plasma inlet arranged to facilitate the passage of nitrogen plasma from the plasma generator into the reaction chamber; and (d) a baffle (160, 210, 300, 400) having one or more flow channels for passage of the nitrogen plasma, the baffle located between the plasma inlet and the substrate and the baffle comprising a plurality of distribution members located above a blocking member, each distribution member defining an aperture and being spaced from adjacent distribution members and the blocking member, to wherein the baffle is arranged to prevent a straight line of passage for nitrogen plasma between the plasma inlet and the substrate, characterized in that the apertures defined by the distribution members are progressively smaller upon approaching the blocking member. (a) a plasma generator arranged to generate a nitrogen plasma from a nitrogen source; (b) a reaction chamber suitable for reacting a reagent comprising a group III metal with a reactive nitrogen species derived from the nitrogen plasma so as to deposit a group III metal nitride on the substrate; (c) a plasma inlet arranged to facilitate the passage of nitrogen plasma from the plasma generator into the reaction chamber; and (d) a baffle (160, 210, 300, 400) having one or more flow channels for passage of the nitrogen plasma, the baffle located between the plasma inlet and the substrate and the baffle comprising a plurality of distribution members located above a blocking member, each distribution member defining an aperture and being spaced from adjacent distribution members and the blocking member,
Double sealing device for a rotating shaft, notably for a rotating shaft or spindle of a fuel injection pump, comprising a first seal and a second seal of annular form, mounted side by side in a circular cylindrical housing through which the shaft to be sealed passes and into which a discharge and/or vent channel opens, in a peripheral groove formed in or associated with the wall of the housing, between the two seals (3, 4), each of these seals (3, 4) being composed of, on the one hand, a carrier ring (8, 9) of metal material with an outer axial flange (8', 9') and an inner radial flange (8", 9") and, on the other hand, a sealing washer (10, 11), preferably PTFE-based and applied to the corresponding carrier ring (8, 9) so as to cover at least a part of the outer face of its axial flange (8', 9'), thereby forming a seal between the latter and the wall of the housing as well as the adjacent face of the radial flange (8", 9"), and so as to extend beyond the free end of the radial flange (8", 9") to form a sealing lip bearing slidably on the shaft to be sealed, the first seal keeping a first fluid medium sealed off from the peripheral groove and the second seal keeping a second fluid medium sealed off from this groove, the double sealing device being characterized in that the axial flange (8', 9') of at least one of the carrier rings (8, 9) of the first and second seals (3, 4) has an extension at its free end forming a pierced or cut-out ring structure, not covered by the sealing washer (10, 11) of the corresponding seal (3, 4), and located substantially facing the peripheral groove and pointing towards the other seal (4, 3), wherein the two seals (3, 4) are fitted side by side and tightly in the housing, and are abutting in the axial direction, said at least one pierced or cut-out ring structure forming an axial separating or spacing structure between the two seals (3, 4), while keeping the peripheral groove substantially clear over its whole width.
A method of processing a 7xxx series aluminum alloy metal product, comprising: solutionizing a sheet, a plate, or a shate at a temperature of at least 460 °C; quenching and deforming the sheet, the plate, or the shate to produce an aluminum alloy article; pre-aging the aluminum alloy article by heating the aluminum alloy article to a temperature of from 100 °C to 225 °C for a period of time of from 10 minutes to 45 minutes, and thermally treating the aluminum alloy article after the pre-aging step, wherein the thermally treating step comprises paint baking performed by heating the aluminum alloy article to a temperature of from 100 °C to 225 °C for a period of time up to 2 hours. solutionizing a sheet, a plate, or a shate at a temperature of at least 460 °C; quenching and deforming the sheet, the plate, or the shate to produce an aluminum alloy article; pre-aging the aluminum alloy article by heating the aluminum alloy article to a temperature of from 100 °C to 225 °C for a period of time of from 10 minutes to 45 minutes, and thermally treating the aluminum alloy article after the pre-aging step, wherein the thermally treating step comprises paint baking performed by heating the aluminum alloy article to a temperature of from 100 °C to 225 °C for a period of time up to 2 hours.