mhurhangee/ep-ind-claims huggingface dataset:
System for producing a data stream on the basis of redundant information, comprising: a first controller having a first data output, wherein the first controller is designed to produce first data and output a first part of first data via the first data output; a second controller having a second data output, wherein the second controller is designed to produce second data and output a second part of second data via the second data output, wherein, during error-free operation, the second data match the first data or deviate therefrom in a predetermined manner; and a first circuit connected with the first data output and the second data output, wherein the first circuit is designed to combine the data that are output via the first and the second data output (12a, 14a) to form a data stream; wherein the first controller is designed to read in at least the second part of second data from the combined data stream; the second controller is designed to read in at least the first part of first data from the combined data stream; characterised in that the first controller is designed to compare the read-in second part of second data with a second part of the first data and, if the comparison indicates a deviation, to stop outputting data via the first data output and/or to block the forwarding of the data stream; and the second controller is designed to compare the read-in first part of first data with a first part of the second data and, if the comparison indicates a deviation, to stop outputting data via the second data output and/or to block the forwarding of the data stream. a first controller having a first data output, wherein the first controller is designed to produce first data and output a first part of first data via the first data output; a second controller having a second data output, wherein the second controller is designed to produce second data and output a second part of second data via the second data output, wherein, during error-free operation, the second data match the first data or deviate therefrom in a predetermined manner; and a first circuit connected with the first data output and the second data output, wherein the first circuit is designed to combine the data that are output via the first and the second data output (12a, 14a) to form a data stream; wherein the first controller is designed to read in at least the second part of second data from the combined data stream; the second controller is designed to read in at least the first part of first data from the combined data stream; characterised in that the first controller is designed to compare the read-in second part of second data with a second part of the first data and, if the comparison indicates a deviation, to stop outputting data via the first data output and/or to block the forwarding of the data stream; and the second controller is designed to compare the read-in first part of first data with a first part of the second data and, if the comparison indicates a deviation, to stop outputting data via the second data output and/or to block the forwarding of the data stream.
An organic electroluminescent device comprising a light-emitting layer B comprising: (i) a host material H B, which has a lowermost excited singlet state energy level S1 H and a lowermost excited triplet state energy level T1 H; (ii) a first thermally activated delayed fluorescence (TADF) material E B, which has a lowermost excited singlet state energy level S1 E and a lowermost excited triplet state energy level T1 E; and (iii) a second TADF material S B, which has a lowermost excited singlet state energy level S1 S and a lowermost excited triplet state energy level T1 S, wherein S B transfers energy to E B and E B emits thermally activated delayed fluorescence with an emission maximum between 420 and 500 nm; and wherein the relations expressed by the following formulas to apply: S 1 H > S 1 E S 1 H > S 1 S S 1 E > S 1 S T 1 H > T 1 S and wherein: S 1 E > S 1 S ≥ T 1 E > T 1 S and S 1 E − T 1 S ≤ 0.4 eV. (i) a host material H B, which has a lowermost excited singlet state energy level S1 H and a lowermost excited triplet state energy level T1 H; (ii) a first thermally activated delayed fluorescence (TADF) material E B, which has a lowermost excited singlet state energy level S1 E and a lowermost excited triplet state energy level T1 E; and (iii) a second TADF material S B, which has a lowermost excited singlet state energy level S1 S and a lowermost excited triplet state energy level T1 S,
An installation for the aerobic biodegradation of fats or so-called physicochemical sludge, in particular from the agricultural and food industry, comprising a biodigester with which an independent bioreactor is associated for producing bacterial lipases intended to provide hydrolysis and beta-oxidation reactions of the fats or sludge in the biodigester, characterized in that the bioreactor is integrated into the biodigester and comprises a tubular vat arranged vertically in the basin of the biodigester, the biodigester is equipped with an oxygenating system comprising an aerating turbine of the basin, the oxygen being captured from the outside air and conveyed by vortex effect in the mass to be oxygenated in the basin via an aspirating cone and in that the foam produced in the biodigester is also aspirated by the cone under the effect of the turbine.
Rotor blade or rotor blade segment for a wind turbine having - at least one cable for the fixation of the rotor blade or rotor blade segment on a rotor hub or on a further rotor blade segment, and - a connecting surface, which, in the mounted state, faces the rotor hub or the further rotor blade segment and from which a free end of the at least one cable protrudes for fixation on the rotor hub or the further rotor blade segment, characterized in that - the at least one cable is anchored inside a connecting area (20, 22, 24) of the rotor blade or the rotor blade segment, which extends over only a longitudinal section of the rotor blade or the rotor blade segment which adjoins the connecting surface, whereby - inside the connecting area (20, 22, 24) a tube or a hose is arranged, which is embedded in a wall of the connecting area (20, 22, 24) as an anchoring element, at or in which a fixation segment of the at least one cable is anchored in a substance-to-substance and/or force-fit manner, whereby - the fixation segment is at least five times as long as the diameter of the at least one cable in the area of the fixation segment. - at least one cable for the fixation of the rotor blade or rotor blade segment on a rotor hub or on a further rotor blade segment, and - a connecting surface, which, in the mounted state, faces the rotor hub or the further rotor blade segment and from which a free end of the at least one cable protrudes for fixation on the rotor hub or the further rotor blade segment, characterized in that - the at least one cable is anchored inside a connecting area (20, 22, 24) of the rotor blade or the rotor blade segment, which extends over only a longitudinal section of the rotor blade or the rotor blade segment which adjoins the connecting surface, whereby - inside the connecting area (20, 22, 24) a tube or a hose is arranged, which is embedded in a wall of the connecting area (20, 22, 24) as an anchoring element, at or in which a fixation segment of the at least one cable is anchored in a substance-to-substance and/or force-fit manner, whereby - the fixation segment is at least five times as long as the diameter of the at least one cable in the area of the fixation segment.
A method for a mobile trusted module of an apparatus, the method comprising: receiving a verification key including an identifier of a parent verification key of the verification key, wherein the verification key comprises a constraint portion; determining (41, 42) whether the constraint portion of the verification key corresponds to the constraint portion of the parent verification key; associating, in case the constraint portion of the verification key corresponds to the constraint portion of the parent verification key, the verification key with a particular state update; and storing the verification key associated with the particular state update, wherein the stored verification key is thereafter usable for authorizing said particular state update. receiving a verification key including an identifier of a parent verification key of the verification key, wherein the verification key comprises a constraint portion; determining (41, 42) whether the constraint portion of the verification key corresponds to the constraint portion of the parent verification key; associating, in case the constraint portion of the verification key corresponds to the constraint portion of the parent verification key, the verification key with a particular state update; and storing the verification key associated with the particular state update, wherein the stored verification key is thereafter usable for authorizing said particular state update.
A panel, comprising: a first metal facing; an insulating foam layer; and a fire barrier layer between the first metal facing and the foam layer, the fire barrier layer comprising a dispersion of expandable graphite in a polyisocyanurate polymer matrix, wherein: the polymer matrix is formed by reaction at an isocyanate index of more than 250 of an isocyanate-containing reactant and a polyol reactant including a long chain polyol of equivalent weight of more than 300, and the amount of expandable graphite per unit area is at least 200 g/m 2. a first metal facing; an insulating foam layer; and a fire barrier layer between the first metal facing and the foam layer, the fire barrier layer comprising a dispersion of expandable graphite in a polyisocyanurate polymer matrix, wherein: the polymer matrix is formed by reaction at an isocyanate index of more than 250 of an isocyanate-containing reactant and a polyol reactant including a long chain polyol of equivalent weight of more than 300, and the amount of expandable graphite per unit area is at least 200 g/m 2. the polymer matrix is formed by reaction at an isocyanate index of more than 250 of an isocyanate-containing reactant and a polyol reactant including a long chain polyol of equivalent weight of more than 300, and the amount of expandable graphite per unit area is at least 200 g/m 2.
A wellbore servicing system (230,240,250) comprising: a controller node (234, 246) disposed within a wellbore, wherein the controller is connected to one or more components located at a surface of the wellbore via a wired connection; and a second node (232,244) configured for release into the wellbore and movement through the wellbore in response to movement of fluid through the wellbore; wherein the second node (232,244) communicates with the controller node (234, 246) via a near field communication signal, wherein the controller node (234, 246) is configured to communicate a command signal to the second node (232, 244) effective to cause the second node to begin outputting an electromagnetic signal transmission, and wherein the second node (232, 244) is configured to output an electromagnetic signal after the second node has moved past and out of NFC signal range with the controller node. a controller node (234, 246) disposed within a wellbore, wherein the controller is connected to one or more components located at a surface of the wellbore via a wired connection; and a second node (232,244) configured for release into the wellbore and movement through the wellbore in response to movement of fluid through the wellbore; wherein the second node (232,244) communicates with the controller node (234, 246) via a near field communication signal, wherein the controller node (234, 246) is configured to communicate a command signal to the second node (232, 244) effective to cause the second node to begin outputting an electromagnetic signal transmission, and wherein the second node (232, 244) is configured to output an electromagnetic signal after the second node has moved past and out of NFC signal range with the controller node.
A plasma cutting system comprising: a torch tip having a proximal end and a distal end defining a longitudinal axis extending there through, the torch tip including a plasma plenum and a plasma arc exit orifice located at the distal end of the torch tip; a lead having a distal end configured for connection to the proximal end of the torch tip; an atmospheric vent port disposed between the plasma arc exit orifice and the distal end of the lead, the atmospheric vent port having an outer opening exposed to atmosphere; and a conduit fluidly connecting the plasma plenum and the atmospheric vent port, the conduit comprising: a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel, fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port. a torch tip having a proximal end and a distal end defining a longitudinal axis extending there through, the torch tip including a plasma plenum and a plasma arc exit orifice located at the distal end of the torch tip; a lead having a distal end configured for connection to the proximal end of the torch tip; an atmospheric vent port disposed between the plasma arc exit orifice and the distal end of the lead, the atmospheric vent port having an outer opening exposed to atmosphere; and a conduit fluidly connecting the plasma plenum and the atmospheric vent port, the conduit comprising: a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel, fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port. a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel, fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port.
A polycrystalline magnetocaloric material of the general formula Mn a Co b Ge c A x with A; B, 0.001 < x < 0.1, 0.9 ≤ a ≤ 1.1, 0.9 ≤ b ≤ 1.1, 0.9 ≤ c ≤ 1.0, where up to 30 mol% of the Mn or Co may be replaced by Fe, Ni, Cr, V or Cu or up to 30 mol% of the Mn, Co or Ge may be replaced by vacancies, in which phases of the orthorhombic TiNiSi structure type and of the hexagonal Ni 2 In structure type are present at a temperature below -40°C. 0.001 < x < 0.1, 0.9 ≤ a ≤ 1.1, 0.9 ≤ b ≤ 1.1, 0.9 ≤ c ≤ 1.0,
Balanced wave power converter system including at least one surface buoy and at least one submerged buoy, the buoys (20, 30) being connected to each other by means of a wire, wherein the wire is connected to a three-phase generator via a fly-wheel between the two buoys (20, 30), wherein the generator is arranged in a housing at a seabed under the buoys (20, 30), and which surface buoy is provided with at least one ballast tank for adjustment of the buoyancy of the surface buoy, wherein the submerged buoy is arranged for accommodating the wire, and that the wire is fixed to the surface buoy and extends down from the surface buoy, through the submerged buoy, around the fly-wheel and up to the submerged buoy where it is fixed, and wherein the submerged buoy exhibits a buoyancy being lower than the buoyancy of the surface buoy, characterized in that a magnetic lead screw is arranged in the power transfer from the fly-wheel to the generator, wherein it further includes at least one winch arranged inside the housing, the at least one winch being arranged to a shaft of the magnetic lead screw by means of a toothed wheel for controlling the wire via the fly-wheel.
Combined hyperosmolar solution for infusion comprising polyol, sodium chloride, potassium chloride, calcium chloride, magnesium chloride, sodium lactate and water for injection, characterized in that it further comprises sodium acetate and L-malate, at the following component ratio by dry weight, wt. %: polyol 4-7 sodium chloride 0,54 - 0,66 potassium chloride 0,027 - 0,033 calcium chloride 0,008 - 0,012 magnesium chloride 0,017 - 0,023 sodium lactate 1,35 - 1,65 sodium acetate 0,234 - 0,286 L-malate 0,120 - 0,145 water for injections remainder up to 100%
Actuator module for an actuator system of a vehicle, the actuator module comprising: an actuator control device for outputting an actuator activation signal, at least one actuator (45, 46) that receives the actuator activation signal and performs an actuator operation on the basis of the actuator activation signal, a driving dynamics sensor device for measuring at least one driving dynamics measurement variable (aL, aq, ω, psi) of the vehicle and generating a driving dynamics measurement signal, and a signal compensation device for receiving the driving dynamics measurement signal, the actuator (45, 46), the actuator control device, the driving dynamics sensor device and the signal compensation device being provided in a structural unit, characterized in that the signal compensation device is further configured to receive an actuator information signal of the actuator control device, which signal indicates the actuator operation, filter the driving dynamics measurement signal on the basis of the actuator information signal and output a compensated driving dynamics measurement signal. an actuator control device for outputting an actuator activation signal, at least one actuator (45, 46) that receives the actuator activation signal and performs an actuator operation on the basis of the actuator activation signal, a driving dynamics sensor device for measuring at least one driving dynamics measurement variable (aL, aq, ω, psi) of the vehicle and generating a driving dynamics measurement signal, and a signal compensation device for receiving the driving dynamics measurement signal, the actuator (45, 46), the actuator control device, the driving dynamics sensor device and the signal compensation device being provided in a structural unit, characterized in that the signal compensation device is further configured to receive an actuator information signal of the actuator control device, which signal indicates the actuator operation, filter the driving dynamics measurement signal on the basis of the actuator information signal and output a compensated driving dynamics measurement signal.
A compound represented by the following Chemical formula 1 or a pharmaceutically acceptable salt thereof. wherein A is phenyl unsubstituted or substituted with one or more halogens, C 1-5 straight or branched alkyl unsubstituted or substituted with one or more halogens, 3 to 6 membered cycloalkyl unsubstituted or substituted with one or more halogens, or 3 to 6 membered heterocycloalkyl unsubstituted or substituted with one or more halogens, and R 1 and R 2 are each independently -H, halogen, -NO 2, -CF 3, phenyl unsubstituted or substituted with one or more halogens, C 1-5 straight or branched alkyl unsubstituted or substituted with one or more halogens, or C 1-5 straight or branched alkoxy unsubstituted or substituted with one or more halogens, wherein the compound is not 6-((benzo[d]oxazol-2-ylmethyl)thio)-1-phenyl-1,5-dihydro-4H-pyrazolo[3,4-d]pyrimidin-4-one. A is phenyl unsubstituted or substituted with one or more halogens, C 1-5 straight or branched alkyl unsubstituted or substituted with one or more halogens, 3 to 6 membered cycloalkyl unsubstituted or substituted with one or more halogens, or 3 to 6 membered heterocycloalkyl unsubstituted or substituted with one or more halogens, and R 1 and R 2 are each independently -H, halogen, -NO 2, -CF 3, phenyl unsubstituted or substituted with one or more halogens, C 1-5 straight or branched alkyl unsubstituted or substituted with one or more halogens, or C 1-5 straight or branched alkoxy unsubstituted or substituted with one or more halogens, wherein the compound is not 6-((benzo[d]oxazol-2-ylmethyl)thio)-1-phenyl-1,5-dihydro-4H-pyrazolo[3,4-d]pyrimidin-4-one.
A cell connection control device that is adapted to set a combination of cells when parallel-connecting a plurality of cells, comprising a determining unit that is adapted to determine a plurality of cells for parallel-connection of the cells; characterized by an inrush current calculating unit that is adapted to perform an operation to select a pair of cells from the cells determined by the determining unit and to calculate an inrush current (I pq) flowing between the selected pair of cells when parallel-connected, for all combinations of the determined cells; a judging unit that is adapted to judge whether the inrush current (I pq) calculated by the inrush current calculating unit is less than or equal to a predetermined upper limit current value (α) or not, for all cell combinations which have undergone the calculation of the inrush current (I pq); and a connection cell setting unit that is adapted to set, as a cell combination to parallel-connect the cells, a cell combination whose inrush current (I pq) is the largest in the cell combinations which are judged that the inrush current (I pq) is less than or equal to the upper limit current value (α) by the judging unit.
A hot-rolled steel sheet having excellent durability, comprising: by weight%, 0.05-0.14% of carbon, 0.1-1.0% of silicon (Si), 0.8-1.8% of manganese (Mn), 0.001-0.03% of phosphorous, 0.001-0.01% of sulfur, 0.1-0.5% of soluble aluminum (Sol.Al), 0.3-1.0% of chromium (Cr), 0.01-0.05% of titanium (Ti), 0.03-0.06% of niobium (Nb), 0.04-0.1% of vanadium, 0.001-0.01% of nitrogen, and a balance of Fe and inevitable impurities, wherein Mn and Si satisfy relational formula 1 as below, wherein a microstructure includes a hard phase including martensite and bainite phases mixed therein with a ferrite phase as a matrix structure, and wherein in a total fracture (area fraction) of a hard phase, a fraction of grains in which a martensite phase and a bainite phase are mixed in a single grain is 60% or higher, and relational formula 2 as below is satisfied. 4 < Mn / Si < 12 (where Mn and Si refer to weight contents of respective elements) SSG M + B / M + B + SSG M + B ≥ 0.6 (where M refers to a martensite phase, B refers to a bainite phase, and SSG M+B refers to a hard phase in which B and M phases are mixed in a single grain, a structure in which an M phase is present around a grain boundary, and a B phase is present in a central region. Also, each phase is represented by area fraction (%)). by weight%, 0.05-0.14% of carbon, 0.1-1.0% of silicon (Si), 0.8-1.8% of manganese (Mn), 0.001-0.03% of phosphorous, 0.001-0.01% of sulfur, 0.1-0.5% of soluble aluminum (Sol.Al), 0.3-1.0% of chromium (Cr), 0.01-0.05% of titanium (Ti), 0.03-0.06% of niobium (Nb), 0.04-0.1% of vanadium, 0.001-0.01% of nitrogen, and a balance of Fe and inevitable impurities, wherein Mn and Si satisfy relational formula 1 as below, wherein a microstructure includes a hard phase including martensite and bainite phases mixed therein with a ferrite phase as a matrix structure, and wherein in a total fracture (area fraction) of a hard phase, a fraction of grains in which a martensite phase and a bainite phase are mixed in a single grain is 60% or higher, and relational formula 2 as below is satisfied. 4 < Mn / Si < 12 (where Mn and Si refer to weight contents of respective elements) SSG M + B / M + B + SSG M + B ≥ 0.6 (where M refers to a martensite phase, B refers to a bainite phase, and SSG M+B refers to a hard phase in which B and M phases are mixed in a single grain, a structure in which an M phase is present around a grain boundary, and a B phase is present in a central region. Also, each phase is represented by area fraction (%)).