mhurhangee/ep-ind-claims huggingface dataset:
Method for regulating power in the event of the failure of at least one aircraft engine (M1, M2) comprising a central digital data processing unit providing an emergency function capable of triggering an emergency signal, characterised in that the method consists in using the engine-class main power unit, known as GPP, managed by a control and monitoring function and operating constantly in flight, while taking up some (P GA) of the nominal total non-propulsive power (P TA) of the aircraft, to extend its operational limits on receipt of the emergency signal in order to be able to supply increased non-propulsive power (Psu, P MU, P IU) almost instantaneously, on the basis of at least three emergency regimes (RS, RM, RI) at the time of said engine failure in response to increased consumption demands on the GPP, each emergency regime having a maximum activation period, which can be carried over from one regime to another and can be distributed over several alternate sequences, in that these regimes comprise at least, classified in order of decreasing power level, what is known as a super-emergency regime, where all or some of the non-propulsive power, plus additional power, is taken over in order to attempt to restart the failed engine (M1, M2), what is known as a maximum emergency regime, where all or some of the non-propulsive power is taken over, and what is known as an intermediate emergency regime, where a minimal fraction of non-propulsive power is taken over, corresponding to the power remaining constantly available up to the end of the flight, in that the control and monitoring function of the GPP calculates the elapsed time for each emergency regime (RS, RM, RI) and informs the central processing unit thereof, while emitting an alarm if the maximum operating periods (x max, y max, z max) allocated to each emergency regime (RS, RM, RI) are exceeded, and in that the emergency function adjusts the non-propulsive power demands made by the aircraft between the main engines (M1, M2) and the GPP unit, either automatically or on the orders of the pilot, on the basis of this information about elapsed time in a regime and of a warning that the limit for using an emergency regime has been exceeded.
: A slip form paving machine, comprising: a machine frame; a plurality of ground engaging wheels or tracks; front and rear height adjustable lifting columns supporting the machine frame from the ground engaging wheels or tracks, the lifting columns being adjustable to adjust a longitudinal inclination of the machine frame in a paving direction; a slip form mold supported from the machine frame for molding a mass of concrete into a formed not yet hardened concrete slab as the paving machine moves forward in the paving direction; an oscillating beam supported from the machine frame behind the slip form mold for engaging and oscillating transversely to the paving direction upon an upper surface of the formed not yet hardened concrete slab to smooth the upper surface; characterized in that the slip form paving machine comprises a roll size sensor configured to detect a size of a roll of not yet hardened concrete created in front of the oscillating beam. a machine frame; a plurality of ground engaging wheels or tracks; front and rear height adjustable lifting columns supporting the machine frame from the ground engaging wheels or tracks, the lifting columns being adjustable to adjust a longitudinal inclination of the machine frame in a paving direction; a slip form mold supported from the machine frame for molding a mass of concrete into a formed not yet hardened concrete slab as the paving machine moves forward in the paving direction; an oscillating beam supported from the machine frame behind the slip form mold for engaging and oscillating transversely to the paving direction upon an upper surface of the formed not yet hardened concrete slab to smooth the upper surface; characterized in that the slip form paving machine comprises a roll size sensor configured to detect a size of a roll of not yet hardened concrete created in front of the oscillating beam.
A direct power conversion device configured to convert power of a single-phase AC power supply input to the direct power conversion device into AC power having a predetermined frequency through a switching operation of a plurality of switching elements (Su, Sv, Sw, Sx, Sy, Sz) and supply converted power to a motor configured to drive a load having periodic load fluctuations, the direct power conversion device comprising: a control unit configured to control the switching operation, wherein under definitions of: fdc being a frequency twice as high as a frequency of the AC power supply; fL being a frequency of the periodic load fluctuations; and tb = 1 / fdc − n × fL, where n is a positive integer that maximizes tb, in a half period of power supply during a period of tb, the half period of power supply including a timing at which a peak of a fundamental wave of load torque and a peak of an absolute value of a power supply voltage substantially coincide with each other, the control unit controls the switching elements (Su, Sv, Sw, Sx, Sy, Sz) so that two or more local maximum points appear in the half period of power supply, in a waveform obtained by combining a second harmonic, a fourth harmonic, and a sixth harmonic of a power supply frequency contained in a waveform of an absolute value of a motor current vector. a control unit configured to control the switching operation, wherein under definitions of: fdc being a frequency twice as high as a frequency of the AC power supply; fL being a frequency of the periodic load fluctuations; and tb = 1 / fdc − n × fL, where n is a positive integer that maximizes tb, in a half period of power supply during a period of tb, the half period of power supply including a timing at which a peak of a fundamental wave of load torque and a peak of an absolute value of a power supply voltage substantially coincide with each other, the control unit controls the switching elements (Su, Sv, Sw, Sx, Sy, Sz) so that two or more local maximum points appear in the half period of power supply, in a waveform obtained by combining a second harmonic, a fourth harmonic, and a sixth harmonic of a power supply frequency contained in a waveform of an absolute value of a motor current vector. fdc being a frequency twice as high as a frequency of the AC power supply; fL being a frequency of the periodic load fluctuations; and tb = 1 / fdc − n × fL, where n is a positive integer that maximizes tb, in a half period of power supply during a period of tb, the half period of power supply including a timing at which a peak of a fundamental wave of load torque and a peak of an absolute value of a power supply voltage substantially coincide with each other, the control unit controls the switching elements (Su, Sv, Sw, Sx, Sy, Sz) so that two or more local maximum points appear in the half period of power supply, in a waveform obtained by combining a second harmonic, a fourth harmonic, and a sixth harmonic of a power supply frequency contained in a waveform of an absolute value of a motor current vector.
Eurobalise vehicle device having two reception frame antennas (2, 3) with identical reception characteristics and the same spatial orientation, wherein the two reception frame antennas (2, 3) each consist of a single winding, are dimensioned to be of equal size and are arranged next to one another on a surface, which corresponds in terms of its size to the surface area of a transmit frame antenna of an associated Eurobalise, and having an evaluation device connected to the reception frame antennas (2, 3) which, when a transmitter is passed, flags a non-Eurobalise reception if the reception level difference (Sd) of the reception frame antennas (2, 3) while a reference signal is present has been predominantly below a predetermined lower reception level (Sw), wherein the reference signal corresponds to a received signal which can be determined during a passing of the transmitter, and the two reception frame antennas (2, 3) are assigned an additional reception frame antenna, the received signal of which forms the reference signal, and the evaluation device has an additional input for the additional reception frame antenna, wherein the additional reception frame antenna is arranged on the surface and comprises the two reception frame antennas (2, 3).
A cooling system for an agricultural vehicle, comprising: a housing configured to support one or more cooling components; a cooling fan positioned proximate to the housing; a debris conduit extending from the housing; a valve configured to move between an open position in which the debris conduit is fluidly coupled to a suction fan and a closed position in which the debris conduit is isolated from the suction fan; and an electronic controller configured to generate control signals to coordinate rotation of the cooling fan and movement of the valve, characterised in that the control signals cause: - the cooling fan to reverse rotation from a first direction in which the cooling fan draws air from an inlet to an outlet of the housing to a second direction in which the cooling fan pushes air from the outlet to the inlet of the housing, and: - the valve to move from the closed position to the open position to fluidly couple the suction fan to the debris conduit to facilitate removal of debris from the housing. a housing configured to support one or more cooling components; a cooling fan positioned proximate to the housing; a debris conduit extending from the housing; a valve configured to move between an open position in which the debris conduit is fluidly coupled to a suction fan and a closed position in which the debris conduit is isolated from the suction fan; and an electronic controller configured to generate control signals to coordinate rotation of the cooling fan and movement of the valve, - the cooling fan to reverse rotation from a first direction in which the cooling fan draws air from an inlet to an outlet of the housing to a second direction in which the cooling fan pushes air from the outlet to the inlet of the housing, and: - the valve to move from the closed position to the open position to fluidly couple the suction fan to the debris conduit to facilitate removal of debris from the housing.
A method of assessing and cutting sheet bioprosthetic tissue, comprising: positioning a die-cut assembly over the bioprosthetic tissue, the die-cut assembly including a die having a plate, a die pattern, and an opening, the die pattern attached to the plate, the opening formed in the plate to provide access to the bioprosthetic tissue; measuring a thickness of the tissue through the opening; selecting a section of the bioprosthetic tissue, based on the thickness measurement of the tissue; and cutting the bioprosthetic tissue with the die. positioning a die-cut assembly over the bioprosthetic tissue, the die-cut assembly including a die having a plate, a die pattern, and an opening, the die pattern attached to the plate, the opening formed in the plate to provide access to the bioprosthetic tissue; measuring a thickness of the tissue through the opening; selecting a section of the bioprosthetic tissue, based on the thickness measurement of the tissue; and cutting the bioprosthetic tissue with the die.
A polymer containing units of fluorene, anthracene and benzothiadiazole, represented by the following formula: wherein n represents an integer between 1 and 200, m represents an integer between 1 and 20; x, y are positive real numbers, and x + y = 1; R 1, R 2 represent H, halogen, cyano, C 1 to C 40 alkyl, C 1 to C 40 aryl or C 1 to C 40 heteroaryl; R 3, R 4 represent H, halogen, cyano, C 1 to C 40 alkyl, C 1 to C 40 alkoxy, C 6 to C 40 aryl, C 6 to C 40 aralkyl or C 6 to C 40 arylalkoxy. wherein n represents an integer between 1 and 200, m represents an integer between 1 and 20; x, y are positive real numbers, and x + y = 1; R 1, R 2 represent H, halogen, cyano, C 1 to C 40 alkyl, C 1 to C 40 aryl or C 1 to C 40 heteroaryl; R 3, R 4 represent H, halogen, cyano, C 1 to C 40 alkyl, C 1 to C 40 alkoxy, C 6 to C 40 aryl, C 6 to C 40 aralkyl or C 6 to C 40 arylalkoxy.
A composition comprising: a deicing component comprising a chloride salt selected from the group consisting of sodium chloride, calcium chloride, magnesium chloride, and potassium chloride, said deicing component being present in an amount effective to reduce the freezing point of said composition by at least 2°C relative to an otherwise identical composition prepared in the absence of said deicing component, said deicing component rendering said composition relatively more corrosive than an otherwise identical composition prepared in the absence of said deicing component; and 2-4wt% of sugar cane molasses solids, said sugar cane molasses solids being present in said composition in an amount effective to reduce the corrosiveness of said composition, said sugar cane molasses solids including at least 10% by dry solids weight sucrose. a deicing component comprising a chloride salt selected from the group consisting of sodium chloride, calcium chloride, magnesium chloride, and potassium chloride, said deicing component being present in an amount effective to reduce the freezing point of said composition by at least 2°C relative to an otherwise identical composition prepared in the absence of said deicing component, said deicing component rendering said composition relatively more corrosive than an otherwise identical composition prepared in the absence of said deicing component; and 2-4wt% of sugar cane molasses solids, said sugar cane molasses solids being present in said composition in an amount effective to reduce the corrosiveness of said composition, said sugar cane molasses solids including at least 10% by dry solids weight sucrose.
A composition comprising a RNAi agent for inhibiting expression of β-ENaC, preferably the RNAi agent comprises at least one modified backbone and/or at least one 2'-modified nucleotide, comprising a first strand and a second strand, wherein: the sequence of the first strand comprises at least 15 contiguous nucleotides of the sequence of SEQ ID NO: 116 or SEQ ID NO: 166, wherein the length of the first and second strand are each at least 15 nucleotides and no more than 30 nucleotides; and wherein the first and/or second strand is modified or unmodified.
Spectacle temple comprising a main body, provided with an inner longitudinal channel, wherein a wire stiffening core is housed, and a first free end terminal, characterized in that said longitudinal channel and said wire core are substantially rectilinear said wire core has two threaded ends (5a, 5b) suitable to couple with respective locking members (6a, 6b) on said main body, said first terminal is coupled in a disengageable manner with a first end tang of said main body, a first one of said locking members is in the shape of a first nut which is housed in a seat of said first tang, and a second one of said locking members consists of a second terminal member, which makes up part of hinge means, provided with a threaded hole.
Weld stud which is used for drawn-arc stud welding, having: a functional section and a welding section which forms an end of the weld stud and which is delimited by a face surface which is domed outwardly in the longitudinal direction of the weld stud and in which the face surface transitions in continuous fashion, without an edge, into a side surface which delimits the welding section, wherein the welding section has a conical section which adjoins the face surface and whose diameter widens, proceeding from the diameter of the face surface, with increasing distance from said face surface. a functional section and a welding section which forms an end of the weld stud and which is delimited by a face surface which is domed outwardly in the longitudinal direction of the weld stud and in which the face surface transitions in continuous fashion, without an edge, into a side surface which delimits the welding section, wherein the welding section has a conical section which adjoins the face surface and whose diameter widens, proceeding from the diameter of the face surface, with increasing distance from said face surface.
System comprising: - a heating device comprising at least one heating means supplied by an AC power grid; - a control module for controlling said heating device; the system being characterised in that the heating means is supplied via a switching converter rectifying the alternating current of the grid into direct current, the switching converter comprising a rectifier and a chopper, the switching converter being controlled by the control module in accordance at least with descriptive data of a state of said power grid characteristic of a present deficit and/or of a future excess amount of energy of renewable origin within said power grid, so as to adjust the power of the heating means. - a heating device comprising at least one heating means supplied by an AC power grid; - a control module for controlling said heating device;
An aqueous cleaning composition comprising i) a polysaccharide polymer; ii) a further polysaccharide polymer different from i); iii) at least one abrasive particle having a mean particle size of 0.01 to 1000 μm; iv) at least one acidic compound; v) water; vi) optionally at least one surfactant; and vii) optionally at least one additive; wherein the composition has a pH of lower than 7 and wherein i) is succinoglycan gum. i) a polysaccharide polymer; ii) a further polysaccharide polymer different from i); iii) at least one abrasive particle having a mean particle size of 0.01 to 1000 μm; iv) at least one acidic compound; v) water; vi) optionally at least one surfactant; and vii) optionally at least one additive;
A fuel cell stack including power generation units (12a, 12b) each formed by sandwiching an electrolyte electrode assembly (16, 16a, 16b) between metal separators (14, 18, 20, 90, 92, 94, 104, 106, 114, 116), the electrolyte electrode assembly (16, 16a, 16b) including an anode, a cathode, and an electrolyte interposed between the anode and the cathode, the power generation units (12a, 12b) including a first power generation unit (12a, 102a) and a second power generation unit (12b, 102b) stacked alternately such that a coolant flow field is formed between the first power generation unit (12a, 102a) and the second power generation unit (12b, 102b), the power generation units (12a, 12b) each having a fuel gas flow field (36, 58) for supplying a fuel gas to the anode, an oxygen-containing gas flow field (50, 66) for supplying an oxygen-containing gas to the cathode, and the coolant flow field, wherein the fuel gas flow field (36, 58), the oxygen-containing gas flow field (50, 66) and the coolant flow field each include a plurality of flow grooves (36a, 58a, 50a, 66a, 44a, 44d) corrugated in a serpentine pattern within the plane of the respective flow field (36, 58, 44), the corrugations of the flow grooves (36a, 58a, 50a, 66a) included in the fuel gas flow field and the oxygen-containing gas flow field of the first power generation unit (12a, 102a) are in the same phase with each other; and the corrugations of the flow grooves (36b, 58b, 50b, 66b) included in the fuel gas flow field and the oxygen-containing gas flow field of the second power generation unit (12b, 102b) are in the same phase with each other; characterized in that the corrugations of the flow grooves (36a, 58a, 50a, 66a, 44a) included in the fuel gas flow field, the oxygen-containing gas flow field and the coolant flow field of the first power generation unit (12a, 102a) and the corrugations of the flow grooves (36b, 58b, 50b, 66b, 44d) included in the fuel gas flow field, the oxygen-containing gas flow field and the coolant flow field of the second power generation unit (12b, 102b) are in different phases from each other, respectively, such that by mutually overlapping the corrugated coolant flow grooves (44a, 44d), a plurality of grooves are formed between the corrugated coolant flow grooves (44a, 44d) of the first and second power generating units (12a, 12b).
A method for inter-Radio Access Technology, RAT, handover at a user equipment, comprising: receiving, from a source network node, a command containing a reconfiguration message and a RAT indicator, wherein the reconfiguration message is based on characteristics of a target network node that are inter-RAT and intra-system to the source network node, and the RAT indicator identifies a RAT of the target network node; and reconfiguring, at the user equipment, a configuration for at least one lower protocol layer and keeping a configuration for at least one upper protocol layer based on the reconfiguration message, wherein the at least one lower protocol layer is at least one of Radio Link Control, RLC, Medium Access Control, MAC, and Physical Layer, PHY. receiving, from a source network node, a command containing a reconfiguration message and a RAT indicator, wherein the reconfiguration message is based on characteristics of a target network node that are inter-RAT and intra-system to the source network node, and the RAT indicator identifies a RAT of the target network node; and reconfiguring, at the user equipment, a configuration for at least one lower protocol layer and keeping a configuration for at least one upper protocol layer based on the reconfiguration message, wherein the at least one lower protocol layer is at least one of Radio Link Control, RLC, Medium Access Control, MAC, and Physical Layer, PHY.
A method of an electronic device operating as a master in a neighbor awareness networking,NAN, cluster, the method comprising: transmitting a discovery signal outside of at least one of a discovery window,DW; determining to perform a concurrent operation outside any DW; changing a master preference of the electronic device for operating as a non-master in the NAN cluster; and transmitting a signal comprising information regarding the changed master preference of the electronic device, wherein the concurrent operation comprises an operation in a network different from a NAN network outside of the DW. transmitting a discovery signal outside of at least one of a discovery window,DW; determining to perform a concurrent operation outside any DW; changing a master preference of the electronic device for operating as a non-master in the NAN cluster; and transmitting a signal comprising information regarding the changed master preference of the electronic device, wherein the concurrent operation comprises an operation in a network different from a NAN network outside of the DW.
An immunogenic composition including one or more isolated polypeptides, wherein said one or more polypeptides is or includes SEQ ID NO:03 for use in protecting or treating a subject from a zoonotic disease caused by an obligate intracellular Anaplasmataceae bacterium selected from the group consisting of Anaplasma phagocytophilum, Anaplasma marginale, Anaplasma platys, Ehrlichia chaffeensis, Ehrlichia canis, and Ehrlicia ruminatium,