mhurhangee/ep-ind-claims huggingface dataset:
A metering pump system comprising: a variable displacement pump comprising an inlet and an outlet; a flow sensing valve fluidically connected to the outlet of the variable displacement pump, the flow sensing valve comprising: a resistance temperature detector configured to measure a temperature of flow through the flow sensing valve; and a first linear variable differential transducer configured to measure a linear displacement of the flow sensing valve; an actuator mechanically coupled to a displacement mechanism of the variable displacement pump, the actuator comprising a second linear variable differential transducer configured to measure a linear displacement of the actuator; an electronic engine controller in communication with the flow sensing valve, wherein the electronic engine controller is configured to determine an actual flow rate of fuel through the flow sensing valve using the temperature of the fuel through the flow sensing valve and the linear displacement of the flow sensing valve and to determine a predicted flow rate of the fuel out of the variable displacement pump using the linear displacement of the actuator; and an electrohydraulic servo valve electrically connected to the electronic engine controller and hydraulically connected to the actuator, wherein the electrohydraulic servo valve is configured to hydraulically drive the actuator to move the displacement mechanism to change displacement of the variable displacement pump. a variable displacement pump comprising an inlet and an outlet; a flow sensing valve fluidically connected to the outlet of the variable displacement pump, the flow sensing valve comprising: a resistance temperature detector configured to measure a temperature of flow through the flow sensing valve; and a first linear variable differential transducer configured to measure a linear displacement of the flow sensing valve; a resistance temperature detector configured to measure a temperature of flow through the flow sensing valve; and a first linear variable differential transducer configured to measure a linear displacement of the flow sensing valve; an actuator mechanically coupled to a displacement mechanism of the variable displacement pump, the actuator comprising a second linear variable differential transducer configured to measure a linear displacement of the actuator; an electronic engine controller in communication with the flow sensing valve, wherein the electronic engine controller is configured to determine an actual flow rate of fuel through the flow sensing valve using the temperature of the fuel through the flow sensing valve and the linear displacement of the flow sensing valve and to determine a predicted flow rate of the fuel out of the variable displacement pump using the linear displacement of the actuator; and an electrohydraulic servo valve electrically connected to the electronic engine controller and hydraulically connected to the actuator, wherein the electrohydraulic servo valve is configured to hydraulically drive the actuator to move the displacement mechanism to change displacement of the variable displacement pump.
A communication method, comprising: communicating, by a first network function entity, indirectly with a second network function entity via a first service communication proxy, SCP, network element; in a case that the first network function entity determines that the first SCP network element is invalid, detecting, by the first network function entity, a second SCP network element or returning, by the first network function entity, to directly communicate with the second network function entity; in a case that the first network function entity determines that the second SCP network element is valid, switching, by the first network function entity, from the first SCP network element to the second SCP network element, to indirectly communicate with the second network function entity via the second SCP network element; and in a case that the first network function entity determines that the second SCP network element is invalid, returning, by the first network function entity, to directly communicate with the second network function entity, characterized in that the communication method further comprises: transmitting, by the first network function entity to a control function entity or a third network function entity, a first notification message indicating that the first SCP network element or the second SCP network element is invalid. communicating, by a first network function entity, indirectly with a second network function entity via a first service communication proxy, SCP, network element; in a case that the first network function entity determines that the first SCP network element is invalid, detecting, by the first network function entity, a second SCP network element or returning, by the first network function entity, to directly communicate with the second network function entity; in a case that the first network function entity determines that the second SCP network element is valid, switching, by the first network function entity, from the first SCP network element to the second SCP network element, to indirectly communicate with the second network function entity via the second SCP network element; and in a case that the first network function entity determines that the second SCP network element is invalid, returning, by the first network function entity, to directly communicate with the second network function entity, characterized in that the communication method further comprises: transmitting, by the first network function entity to a control function entity or a third network function entity, a first notification message indicating that the first SCP network element or the second SCP network element is invalid.
A refrigerator appliance comprising: a cabinet including a liner (14, 16) spaced apart from a wrapper; a trim breaker extending between the liner (14, 16) and the wrapper; a trim adapter assembly (22, 24) including an upper member (110, 160), a first side member (112, 162), a second side member (114, 164), and a lower member (116, 166), wherein each of the members (110, 112, 114, 116, 160, 162, 164, 166) is coupled with the trim breaker; and a heat loop assembly operably coupled with an adapter member (26, 28, 30, 32) of said upper member (110, 160), first side member (112, 162), second side member (114, 164) and lower member (116, 166), characterised in that the heat loop assembly includes: a cover including a clip member extending along an edge (52, 54) of the cover; and a heat loop coupled with the cover via the clip member. a cabinet including a liner (14, 16) spaced apart from a wrapper; a trim breaker extending between the liner (14, 16) and the wrapper; a trim adapter assembly (22, 24) including an upper member (110, 160), a first side member (112, 162), a second side member (114, 164), and a lower member (116, 166), wherein each of the members (110, 112, 114, 116, 160, 162, 164, 166) is coupled with the trim breaker; and a heat loop assembly operably coupled with an adapter member (26, 28, 30, 32) of said upper member (110, 160), first side member (112, 162), second side member (114, 164) and lower member (116, 166), a cover including a clip member extending along an edge (52, 54) of the cover; and a heat loop coupled with the cover via the clip member.
Cosmetic composition for treating keratin fibres, comprising, in a cosmetically acceptable medium: - one or more oxidation bases and/or one or more couplers - one or more alkanolamines; - one or more basic amino acids; and - one or more additional alkaline agents chosen from aqueous ammonia; ammonium salts of acids whose pKa at 25°C is greater than 4; alkali metal or alkaline-earth metal hydroxides, carbonates, carbamates and hydrogen carbonates; the alkanolamines/basic amino acids mole ratio being less than or equal to 10. - one or more oxidation bases and/or one or more couplers - one or more alkanolamines; - one or more basic amino acids; and - one or more additional alkaline agents chosen from aqueous ammonia; ammonium salts of acids whose pKa at 25°C is greater than 4; alkali metal or alkaline-earth metal hydroxides, carbonates, carbamates and hydrogen carbonates;
A recombinant Yarrowia sp. host cell that produces an oil comprising: (i) at least 50 weight percent of eicosapentaenoic acid measured as a weight percent of total fatty acids; and (ii) a ratio of at least 3.5 of eicosapentaenoic acid, measured as a weight percent of total fatty acids, to linoleic acid, measured as a weight percent of total fatty acids; wherein said host cell comprises: (a) at least one multizyme which comprises a polypeptide having at least one delta-9 elongase linked to at least one delta-8 desaturase; (b) at least one peroxisome biogenesis factor protein whose expression has been down-regulated; and (c) at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding a heterologous malonyl-CoA synthetase, and at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding an acyl-CoA lysophospholipid acyltransferase (LPLAT) such that the LPLAT is overexpressed in the host cell, wherein said chimeric genes comprise regulatory and coding sequences not found together in nature. (i) at least 50 weight percent of eicosapentaenoic acid measured as a weight percent of total fatty acids; and (ii) a ratio of at least 3.5 of eicosapentaenoic acid, measured as a weight percent of total fatty acids, to linoleic acid, measured as a weight percent of total fatty acids; wherein said host cell comprises: (a) at least one multizyme which comprises a polypeptide having at least one delta-9 elongase linked to at least one delta-8 desaturase; (b) at least one peroxisome biogenesis factor protein whose expression has been down-regulated; and (c) at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding a heterologous malonyl-CoA synthetase, and at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding an acyl-CoA lysophospholipid acyltransferase (LPLAT) such that the LPLAT is overexpressed in the host cell, wherein said chimeric genes comprise regulatory and coding sequences not found together in nature. (a) at least one multizyme which comprises a polypeptide having at least one delta-9 elongase linked to at least one delta-8 desaturase; (b) at least one peroxisome biogenesis factor protein whose expression has been down-regulated; and (c) at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding a heterologous malonyl-CoA synthetase, and at least one recombinant construct comprising a non-native chimeric gene comprising a nucleotide sequence encoding an acyl-CoA lysophospholipid acyltransferase (LPLAT) such that the LPLAT is overexpressed in the host cell, wherein said chimeric genes comprise regulatory and coding sequences not found together in nature.
A runner device for a hydraulic fluid flow machine, the runner including a runner hub and a number of vanes distributed around the centre axis of the runner, the vanes being releasably connected to the runner by means of bases that complementarily fit grooves in the runner hub, characterized in that the grooves in the runner hub extend radially across the runner hub from the outer edge portion and to the inner edge portion so that there is no radial clearance between the grooves and the inner edge portion of the runner hub and/or between the grooves and the outer edge portion of the runner hub.
A dual-clutch automatic transmission cooling and lubrication hydraulic control system, comprising: a clutch lubrication control valve, the outlet end of the clutch lubrication control valve being connected with a clutch lubricating oil circuit; a gear lubrication control valve, the inlet end of the gear lubrication control valve being connected with the inlet end of the clutch lubrication control valve in parallel at a first common end, the outlet end of the gear lubrication control valve is connected to a gear and bearing lubricating oil circuit; a mechanical pump, the inlet end being connected to an oil tank, and the outlet end of the mechanical pump being connected with a first control valve; an electronic pump, the inlet end being connected to the oil tank, the outlet end of the electronic pump being connected with a second control valve, the outlet end of the second control valve being connected with the outlet end of the first control valve in parallel at a second common end; a cooler, connected in series between the first common end and the second common end; wherein a bypass valve that is configured to operate in response to a pressure difference across the cooler is connected in parallel at both ends of the cooler. a clutch lubrication control valve, the outlet end of the clutch lubrication control valve being connected with a clutch lubricating oil circuit; a gear lubrication control valve, the inlet end of the gear lubrication control valve being connected with the inlet end of the clutch lubrication control valve in parallel at a first common end, the outlet end of the gear lubrication control valve is connected to a gear and bearing lubricating oil circuit; a mechanical pump, the inlet end being connected to an oil tank, and the outlet end of the mechanical pump being connected with a first control valve; an electronic pump, the inlet end being connected to the oil tank, the outlet end of the electronic pump being connected with a second control valve, the outlet end of the second control valve being connected with the outlet end of the first control valve in parallel at a second common end; a cooler, connected in series between the first common end and the second common end; wherein a bypass valve that is configured to operate in response to a pressure difference across the cooler is connected in parallel at both ends of the cooler.
A drive train for an agricultural vehicle with a steerable front axle and at least one further vehicle axle, wherein the drive train comprises a main drive element for the provision of a torque which can be transmitted to a main transmission by means of a drive shaft, as well as a selectable clutch for electively driving the front axle in conjunction with the further vehicle axis, wherein the main transmission can be operatively connected to the front axle and/or the further vehicle axle and the torque can be distributed thereto in order to drive the front axle and/or the further vehicle axle, characterized in that a secondary drive train is provided on which only an electric motor is disposed, and the electric motor can be operatively connected to the drive train by means of exactly one controllable torque transmission device, wherein at least one control device is associated with the drive train and is configured to control at least the torque transmission device as a function of an operational mode of the drive train and in one operational mode, the electric motor enables operation of at least the front axle, which operation being independent of the operational state of the main drive element, wherein the independent operation of the front axle is configured in the form of steering assistance which enables the speed of the front axle to be increased by connecting up the electric motor.
An exchangeable lens mountable on a camera body, comprising: a selection unit configured to select a first state (LIMIT1, LIMIT2) in which a movement range (Rf1, Rf2, Rf3) of a focusing optical system changing a focal position of the exchangeable lens is limited and a second state (FULL) in which the movement range (Rf1, Rf2, Rf3) is not limited; and a transmission unit configured to: transmit a first value (K cur) and a second value (K min) which is equal to or smaller than the first value (K cur) to the camera body in the second state (FULL), the first value (K cur) indicating a relationship between a moving amount of the focusing optical system and a moving amount of an image plane at a position in which the focusing optical system has moved, the second value (K min) indicating a relationship between the moving amount of the focusing optical system and the moving amount of the image plane, and transmit the first value (K cur) and a value which changes depending on the position of the focusing optical system as the second value (K min) in the first state (LIMIT1, LIMIT2). a selection unit configured to select a first state (LIMIT1, LIMIT2) in which a movement range (Rf1, Rf2, Rf3) of a focusing optical system changing a focal position of the exchangeable lens is limited and a second state (FULL) in which the movement range (Rf1, Rf2, Rf3) is not limited; and a transmission unit configured to: transmit a first value (K cur) and a second value (K min) which is equal to or smaller than the first value (K cur) to the camera body in the second state (FULL), the first value (K cur) indicating a relationship between a moving amount of the focusing optical system and a moving amount of an image plane at a position in which the focusing optical system has moved, the second value (K min) indicating a relationship between the moving amount of the focusing optical system and the moving amount of the image plane, and transmit the first value (K cur) and a value which changes depending on the position of the focusing optical system as the second value (K min) in the first state (LIMIT1, LIMIT2). transmit a first value (K cur) and a second value (K min) which is equal to or smaller than the first value (K cur) to the camera body in the second state (FULL), the first value (K cur) indicating a relationship between a moving amount of the focusing optical system and a moving amount of an image plane at a position in which the focusing optical system has moved, the second value (K min) indicating a relationship between the moving amount of the focusing optical system and the moving amount of the image plane, and transmit the first value (K cur) and a value which changes depending on the position of the focusing optical system as the second value (K min) in the first state (LIMIT1, LIMIT2).
A solid pharmaceutical composition comprising: a compound represented by the general formula: (wherein R 1 represents an alkyl group having 1 to 3 carbon atoms of which one or two or more hydrogen atoms may be substituted with a halogen atom, an amino group, or a cyano group, R 2 represents an alkyl group having 1 to 3 carbon atoms, a hydrogen atom, a halogen atom, a hydroxyl group, or an amino group, R 3 represents a hydrogen atom or a halogen atom, R 4 represents a hydrogen atom or a fluorine atom, and X represents a halogen atom) or a salt thereof; a cellulosic excipient; and an acidic substance of pH 4.0 or lower; wherein the pH is a value obtained by measuring the pH of liquid at a concentration of 2.5%, in which 50 mg of the object substance is weighed, and dissolved or suspended in 1,950 μL of water, with a pH meter. a compound represented by the general formula: (wherein R 1 represents an alkyl group having 1 to 3 carbon atoms of which one or two or more hydrogen atoms may be substituted with a halogen atom, an amino group, or a cyano group, R 2 represents an alkyl group having 1 to 3 carbon atoms, a hydrogen atom, a halogen atom, a hydroxyl group, or an amino group, R 3 represents a hydrogen atom or a halogen atom, R 4 represents a hydrogen atom or a fluorine atom, and X represents a halogen atom) or a salt thereof; R 1 represents an alkyl group having 1 to 3 carbon atoms of which one or two or more hydrogen atoms may be substituted with a halogen atom, an amino group, or a cyano group, R 2 represents an alkyl group having 1 to 3 carbon atoms, a hydrogen atom, a halogen atom, a hydroxyl group, or an amino group, R 3 represents a hydrogen atom or a halogen atom, R 4 represents a hydrogen atom or a fluorine atom, and X represents a halogen atom) a cellulosic excipient; and an acidic substance of pH 4.0 or lower; wherein the pH is a value obtained by measuring the pH of liquid at a concentration of 2.5%, in which 50 mg of the object substance is weighed, and dissolved or suspended in 1,950 μL of water, with a pH meter.
A method of removing aluminium waste from wastewater, the method comprising: (a) supplying wastewater containing aluminium as a feed; (b) separating the wastewater into a liquid component and a sludge component containing the aluminium; (c) reacting the sludge component with sulfuric acid to produce aluminium sulfate; (d) mixing the aluminium sulfate with alcohol to produce aluminium sulfate hydrate; and (e) adding the aluminium sulfate hydrate produced in step (d) to the wastewater supplied in step (a), to act as a coagulant for the aluminium. (a) supplying wastewater containing aluminium as a feed; (b) separating the wastewater into a liquid component and a sludge component containing the aluminium; (c) reacting the sludge component with sulfuric acid to produce aluminium sulfate; (d) mixing the aluminium sulfate with alcohol to produce aluminium sulfate hydrate; and (e) adding the aluminium sulfate hydrate produced in step (d) to the wastewater supplied in step (a), to act as a coagulant for the aluminium.
Sound insulation element comprising at least two layers whereof one layer comprises a flexible material and provides the sound insulation and the other layer is a carrier layer (3; 5; 6; 8) for the flexible material, characterized in that the flexible material of said layer consists of sponge cloth whose main constituent is regenerated or non-derivatized cellulose, and in that said layer incorporates one or more flame-retardant substances added thereto.
An in vitro method of propagating a monkey adenovirus, which method comprises contacting a human cell with the monkey adenovirus, wherein the monkey adenovirus comprises a nucleic acid sequence encoding one or more gene products of a human adenovirus, wherein the one or more gene products comprise a gene product encoded by a portion of the E4 region, which portion comprises E4 ORF6, wherein the monkey adenovirus comprises inverted terminal repeat sequences from the monkey adenovirus, wherein monkey refers to both new world and old world monkeys, and does not include any member of the family Hominidae, and whereby the monkey adenovirus is propagated in the cell.