mhurhangee/ep-ind-claims huggingface dataset:
A gas-insulated switchgear comprising: a main body portion in which a switching device is housed; power receiving lead-in bushings (11a,11b,11c) of three phases to which conductor portions extended rearward from the main body portion are connected, respectively; and a bushing tank at which the power receiving lead-in bushings (11a,11b,11c) of the three phases are provided and in which insulating gas is sealed, characterized in that an upper surface portion of the bushing tank is formed as a hemispherical portion protruding upward, and the power receiving lead-in bushings (11a,11b,11c) of the three phases are provided at the hemispherical portion, and the power receiving lead-in bushings (11a,11b,11c) of the three phases are disposed on the upper surface of the bushing tank at equal intervals in a circumferential direction such that end portions thereof are inclined outward so as to be separated from each other, and one of the power receiving lead-in bushings (11a,11b,11c) of the three phases is disposed along a front-rear direction of the main body portion. a main body portion in which a switching device is housed; power receiving lead-in bushings (11a,11b,11c) of three phases to which conductor portions extended rearward from the main body portion are connected, respectively; and a bushing tank at which the power receiving lead-in bushings (11a,11b,11c) of the three phases are provided and in which insulating gas is sealed, characterized in that an upper surface portion of the bushing tank is formed as a hemispherical portion protruding upward, and the power receiving lead-in bushings (11a,11b,11c) of the three phases are provided at the hemispherical portion, and the power receiving lead-in bushings (11a,11b,11c) of the three phases are disposed on the upper surface of the bushing tank at equal intervals in a circumferential direction such that end portions thereof are inclined outward so as to be separated from each other, and one of the power receiving lead-in bushings (11a,11b,11c) of the three phases is disposed along a front-rear direction of the main body portion.
Household appliance device, in particular a cooking appliance device, with at least one inductor (18a-g), with at least one switching unit (53a-g), at which at least one operating voltage is present in at least one operating state, and with a control unit (38a-g), which is provided to supply at least one supply voltage for the inductor (18a-g) by switching the switching unit (53a-g), wherein the control unit (38a-g) is provided to vary at least one frequency of a pulse modulation of the supply voltage within at least one period of the operating voltage in at least one operating state, characterised in that the control unit (38a-g) is provided also to vary at least one duty factor of the pulse modulation of the supply voltage within the at least one period of the operating voltage in the operating state.
A method of repairing a flange of an aluminium casing, for a turbine engine such as an airplane turboprop or turbojet, the flange including at least one through hole for passing a bolt for fastening equipment, the method being characterized in that it comprises the successive steps consisting in: • forming a spot face in the flange around the hole for passing the bolt; • anodizing the bottom surface of the spot face; • placing a washer on the spot face, the washer being made of a material that presents hardness greater than the hardness of the material of the casing; • fastening the washer to the flange using adhesive. • forming a spot face in the flange around the hole for passing the bolt; • anodizing the bottom surface of the spot face; • placing a washer on the spot face, the washer being made of a material that presents hardness greater than the hardness of the material of the casing; • fastening the washer to the flange using adhesive.
System for a vehicle seat, comprising: - a functional device able to selectively occupy Np states, where Np is a positive integer, - an input interface configured for collecting Nm parameters, where Nm is a positive integer, related to the vehicle and/or to the seat and/or to a user of the seat, - a control device configured for changing the functional device from one of the Np states to another of the Np states, - a control interface enabling the user to set the functional device, via the control device, to the state to be in, - a data storage unit, characterized in that the system is configured for: - sending the values of the Nm parameters to the data storage unit each time the user places the functional device in one of the Np states. - a functional device able to selectively occupy Np states, where Np is a positive integer, - an input interface configured for collecting Nm parameters, where Nm is a positive integer, related to the vehicle and/or to the seat and/or to a user of the seat, - a control device configured for changing the functional device from one of the Np states to another of the Np states, - a control interface enabling the user to set the functional device, via the control device, to the state to be in, - a data storage unit, - sending the values of the Nm parameters to the data storage unit each time the user places the functional device in one of the Np states.
Pipette for a pipette system comprising a pipette and a syringe, in the case of which the syringe has a cylinder (2.1), with a fastening portion (2.2) designed preferably in the form of a flange, and a plunger, which has a plunger head (2.3) which, even when the plunger is pushed all the way into the cylinder (2.1), projects out of the end of the cylinder (2.1), having a pipette housing which has a longitudinal axis, wherein a syringe, which is to be operated by the pipette, can be inserted into the pipette housing, and removed from the same, by way of its fastening portion (2.2) and plunger head (2.3), having a plunger-adjusting device for the plunger head (2.3) of the syringe, it being possible for said plunger-adjusting device to be displaced in the pipette housing in the direction of the longitudinal axis of the latter, i.e. axially, having an actuating lever for actuating the plunger-adjusting device, said actuating lever being mounted in a movable manner in the pipette housing and projecting part of the way out of said pipette housing, preferably having a volume-adjusting device for adjusting the liquid volume which is pipetted when the actuating lever is actuated, said volume-adjusting device being arranged in the pipette housing, wherein the plunger-adjusting device has a rack with a toothing formation (7.1), said rack being arranged in an axially displaceable manner in the pipette housing and being coupled to the plunger head (2.3) of an inserted syringe, the actuating lever has arranged on it a pivotably mounted catch which, when the actuating lever is actuated, engages in the toothing formation (7.1) of the rack and displaces the plunger of the syringe via the plunger head (2.3), and the rack has arranged on it a control slide which controls the engagement of the catch in the toothing formation (7.1) and which can be adjusted in position on the rack, preferably, via the volume-adjusting device, characterized in that the rack is designed in more than one piece and comprises at least a carrier (7.2) and a toothing-formation part (7.3), wherein the carrier (7.2) has a mount for the toothing-formation part (7.3) and the toothing-formation part (7.3) carries the toothing formation (7.1), and in that the carrier (7.2), on the one hand, and the toothing-formation part (7.3), on the other hand, consist of different materials.
A filtration system for use with a cell removal system, comprising: a loading member configured to receive a plurality of filtration members (102a, 102b, 102c), each of the plurality of filtration members including a filtration inlet, a filtration outlet, and a filtration flow path that extends from the filtration inlet to the filtration outlet; at least one actuator configured to move the plurality of filtration members, sequentially, from a non-active position in which a respective one of the plurality of filtration members is not in fluid communication with a sample flow path of the cell removal system, to an active position in which a respective filtration member is in fluid communication with the sample flow path, and to a discarded position in which the respective filtration member has been removed from fluid communication with the sample flow path.
A coating composition comprising: (i) at least one oxidative drying alkyd resin; (ii) at least one synthetic clay; and (iii) water; wherein said composition has a solids content of less than 35 wt%. (i) at least one oxidative drying alkyd resin; (ii) at least one synthetic clay; and (iii) water;
A method for amplifying a target nucleic acid by real-time PCR, wherein: a. oligonucleotide primers are annealed to the target nucleic acid; and b. the target nucleic acid is amplified and denatured; wherein the oligonucleotide primers are designed so as to have a primer Tm that is within 15°C of the melting temperature of the target nucleic acid and wherein the method is carried out at a temperature between 75°C and 90°C. a. oligonucleotide primers are annealed to the target nucleic acid; and b. the target nucleic acid is amplified and denatured;
A high-pressure mercury lamp comprising: a luminous bulb enclosing mercury, a rare gas and halogen in the bulb and made substantially of quartz glass; and an electrode made substantially of tungsten and disposed in the luminous bulb, wherein the amount of mercury (Hg) enclosed in the luminous bulb is from 150 mg/cm 3 to 300 mg/cm 3. and the mercury vapour pressure during lamp operation is from 15 MPa to 30 MPa, wherein the total amount of sodium (Na), potassium, and lithium (Li) of the quartz glass is 1 ppm or less; and wherein when the halogen enclosed in the luminous bulb is denoted by X and a mole number of the halogen X is denoted by N, the mole number N of the halogen X is larger than the sum of the total mole number of sodium (Na), potassium, and lithium (Li) inside the luminous bulb and the mole number of tungsten present in the luminous bulb by evaporation from the electrode during lamp operation; and wherein the content of molecular hydrogen (H 2) contained in the luminous bulb is 0.15% by volume or less. a luminous bulb enclosing mercury, a rare gas and halogen in the bulb and made substantially of quartz glass; and an electrode made substantially of tungsten and disposed in the luminous bulb, wherein the amount of mercury (Hg) enclosed in the luminous bulb is from 150 mg/cm 3 to 300 mg/cm 3. and the mercury vapour pressure during lamp operation is from 15 MPa to 30 MPa, wherein the total amount of sodium (Na), potassium, and lithium (Li) of the quartz glass is 1 ppm or less; and wherein when the halogen enclosed in the luminous bulb is denoted by X and a mole number of the halogen X is denoted by N, the mole number N of the halogen X is larger than the sum of the total mole number of sodium (Na), potassium, and lithium (Li) inside the luminous bulb and the mole number of tungsten present in the luminous bulb by evaporation from the electrode during lamp operation; and wherein the content of molecular hydrogen (H 2) contained in the luminous bulb is 0.15% by volume or less.
A method for operating a pressurized water nuclear reactor comprising a core containing nuclear fuel assemblies comprising nuclear fuel rods, the method comprising steps consisting of operating the nuclear reactor for successive cycles with, between each cycle, steps for replacing spent nuclear fuel assemblies with fresh nuclear fuel assemblies, a method wherein: - the reactor is operated for an initial cycle for starting the nuclear reactor during which the core contains initial nuclear fuel assemblies (16A, 16B, 16C,16D), at least some of the initial nuclear fuel assemblies (16A, 16B, 16C) only comprising nuclear fuel rods which, before irradiation, contain uranium oxide but do not contain any plutonium oxide, and then - the reactor is operated for transition cycles, at least some of the initial nuclear fuel assemblies (16A, 16B, 16C, 16D) being progressively replaced, during the replacement steps preceding the transition cycles, with transition nuclear fuel assemblies or with plutonium-equilibrium nuclear fuel assemblies, the plutonium-equilibrium nuclear fuel assemblies only comprising, before irradiation, nuclear fuel rods exclusively based on uranium and plutonium mixed oxide, and for each plutonium-equilibrium nuclear fuel assembly, the nuclear fuel rods have the same nuclear fuel isotope composition and the same nominal total plutonium mass content, and then - the nuclear reactor is operated for at least one plutonium-equilibrium cycle during which the core only contains plutonium-equilibrium nuclear fuel assemblies. - the reactor is operated for an initial cycle for starting the nuclear reactor during which the core contains initial nuclear fuel assemblies (16A, 16B, 16C,16D), at least some of the initial nuclear fuel assemblies (16A, 16B, 16C) only comprising nuclear fuel rods which, before irradiation, contain uranium oxide but do not contain any plutonium oxide, and then - the reactor is operated for transition cycles, at least some of the initial nuclear fuel assemblies (16A, 16B, 16C, 16D) being progressively replaced, during the replacement steps preceding the transition cycles, with transition nuclear fuel assemblies or with plutonium-equilibrium nuclear fuel assemblies, the plutonium-equilibrium nuclear fuel assemblies only comprising, before irradiation, nuclear fuel rods exclusively based on uranium and plutonium mixed oxide, and for each plutonium-equilibrium nuclear fuel assembly, the nuclear fuel rods have the same nuclear fuel isotope composition and the same nominal total plutonium mass content, and then - the nuclear reactor is operated for at least one plutonium-equilibrium cycle during which the core only contains plutonium-equilibrium nuclear fuel assemblies.
Combustor system for a gas turbine engine, the combustor system comprising a combustion chamber into which a pilot fuel and a main fuel is injectable and flammable, wherein an exhaust gas generated by the burned pilot fuel and the burned main fuel is exhaustible out of the combustion chamber, a fuel control unit which divides a fuel into the pilot fuel and into the main fuel under consideration of an adjustable pilot fuel/main fuel ratio, a temperature sensor for generating a temperature signal indicative of a temperature of the exhaust gas at a location inside the combustion chamber or further downstream of the combustion chamber, a control unit which is coupled to the fuel control unit for adjusting the pilot fuel/main fuel ratio, characterised in that, the combustor system comprises a fuel determination unit for determining a fuel signal indicative of a fuel composition of the fuel, a mass flow sensor for generating a mass flow signal indicative of an air mass flow entering the combustion chamber, and the control unit is also coupled to the fuel determination unit for receiving the determined fuel signal of the fuel, and to the mass flow sensor for receiving the determined mass flow signal, wherein the control unit is configured for determining a predicted pollutant concentration of the exhaust gas on the basis of the temperature signal, the fuel signal, the mass flow signal and the pilot fuel/main fuel ratio.
A program comprising a set of instructions which when executed performs a message analyzing method to analyze a plurality of messages related to a state of hardware that constitutes a computer, the messages being generated by each piece of software (51 - 54) managing the hardware, the message analyzing method executed by the set of instructions comprising: storing the plurality of messages in a message storing unit; determining a state of the computer by comparing the plurality of messages stored in the message storing unit; grouping messages having a same instance together into groups, the instance being a logical name that indicates a correspondence between a hardware component and a driver for controlling the hardware component; acquiring message-defining dictionary information including weighting values for the messages; acquiring a weighting value for each message in a group from the message-defining dictionary information; selecting a message, within a group, having a higher priority, based on the weighting values of the messages, and disabling a message within the group having a smaller weighting value, among the plurality of messages stored in the message storing unit, wherein the weighting value indicates the priority of the message associated with message-defining dictionary information and, when a weighting value is larger, the priority of the message is higher; and identifying a faulty component, based on error type information in the selected message. storing the plurality of messages in a message storing unit; determining a state of the computer by comparing the plurality of messages stored in the message storing unit; grouping messages having a same instance together into groups, the instance being a logical name that indicates a correspondence between a hardware component and a driver for controlling the hardware component; acquiring message-defining dictionary information including weighting values for the messages; acquiring a weighting value for each message in a group from the message-defining dictionary information; selecting a message, within a group, having a higher priority, based on the weighting values of the messages, and disabling a message within the group having a smaller weighting value, among the plurality of messages stored in the message storing unit, wherein the weighting value indicates the priority of the message associated with message-defining dictionary information and, when a weighting value is larger, the priority of the message is higher; and identifying a faulty component, based on error type information in the selected message.
A sprung mass damping control system of a vehicle, which suppresses sprung mass vibration generated in a vehicle body by adjusting a driving control amount of a drive source, comprising: a spring vibration control amount calculating device that sets a sprung mass damping control amount for suppressing the sprung mass vibration; a drive source control device that executes sprung mass damping control by controlling the driving control amount of the drive source to realize the sprung mass damping control amount; and characterized in that a sprung mass damping control amount adjusting apparatus that adjusts the phase of a sprung mass damping control signal related to the sprung mass damping control amount according to the situation. a spring vibration control amount calculating device that sets a sprung mass damping control amount for suppressing the sprung mass vibration; a drive source control device that executes sprung mass damping control by controlling the driving control amount of the drive source to realize the sprung mass damping control amount; and a sprung mass damping control amount adjusting apparatus that adjusts the phase of a sprung mass damping control signal related to the sprung mass damping control amount according to the situation.
Cosmetic use, as agent for preventing and/or treating an aesthetic defect in the skin and/or its appendages that is associated with an imbalance in the differentiation and/or proliferation of the cells of an epidermis, of an effective amount of at least one compound represented by one of the general formulae, (Ia) or (Ib): in which: - R 1 represents H; -C R 10, with R 10 being a saturated or unsaturated, linear or branched C 1 -C 4 alkyl, or being a phenyl; - R 2 represents H; a saturated or unsaturated, linear or branched C 1 -C 12 alkyl group; or a group selected from: in which R 5, R 6, R 7, R 8 and R 9 represent, independently of one another, H; -NO 2; -OH; OR 10; -CN; a fluorine; Cl; I; Br; -CF 3; a saturated or unsaturated, linear or branched C 1 -C 4 alkyl; a phenyl; -OC -R 10; -O-Ph-X with X representing H, -OH, -NO 2, a fluorine, a saturated or unsaturated, linear or branched C 1 -C 4 alkoxy or alkyl; with R 10 being as defined above, - R 3 represents a group -OR 11, with R 11 being H, a saturated or unsaturated, linear or branched C 1 -C 4 alkyl, or a phenyl, - R 4 represents a saturated or unsaturated, linear or branched C 1 -C 4 alkyl; or a phenyl, - R and R', which are identical or different, represent H or a linear or branched C 1 -C 4 alkyl, or a physiologically acceptable salt of said compound. - R 1 represents H; -C R 10, with R 10 being a saturated or unsaturated, linear or branched C 1 -C 4 alkyl, or being a phenyl; - R 2 represents H; a saturated or unsaturated, linear or branched C 1 -C 12 alkyl group; or a group selected from: in which R 5, R 6, R 7, R 8 and R 9 represent, independently of one another, H; -NO 2; -OH; OR 10; -CN; a fluorine; Cl; I; Br; -CF 3; a saturated or unsaturated, linear or branched C 1 -C 4 alkyl; a phenyl; -OC -R 10; -O-Ph-X with X representing H, -OH, -NO 2, a fluorine, a saturated or unsaturated, linear or branched C 1 -C 4 alkoxy or alkyl; with R 10 being as defined above, - R 3 represents a group -OR 11, with R 11 being H, a saturated or unsaturated, linear or branched C 1 -C 4 alkyl, or a phenyl, - R 4 represents a saturated or unsaturated, linear or branched C 1 -C 4 alkyl; or a phenyl, - R and R', which are identical or different, represent H or a linear or branched C 1 -C 4 alkyl,
A melt blended, thermoplastic composition comprising: at least one rigid renewable polyester having a glass transition temperature of 0°C or more as determined by dynamic mechanical analysis in accordance with ASTM E1640-09; from about 1 wt.% to 30 wt.% of at least one polymeric toughening additive based on the weight of the renewable polyester; from about 0.1 wt.% to 20 wt.% of at least one interphase modifier based on the weight of the renewable polyester; and wherein the thermoplastic composition has a morphology in which a plurality of discrete primary domains are dispersed within a continuous phase, the domains containing the polymeric toughening additive and the continuous phase containing the renewable polyester, further wherein the composition exhibits an Izod impact strength of 0.3 Joules per centimeter or more, measured at 23°C according to ASTM D256-10 (Method A), and a tensile elongation at break of 10% or more, measured at 23°C according to ASTM D638-10, and wherein the ratio of the glass transition temperature of the thermoplastic composition to the glass transition temperature of the renewable polyester is from 0.7 to 1.3. at least one rigid renewable polyester having a glass transition temperature of 0°C or more as determined by dynamic mechanical analysis in accordance with ASTM E1640-09; from about 1 wt.% to 30 wt.% of at least one polymeric toughening additive based on the weight of the renewable polyester; from about 0.1 wt.% to 20 wt.% of at least one interphase modifier based on the weight of the renewable polyester; and wherein the thermoplastic composition has a morphology in which a plurality of discrete primary domains are dispersed within a continuous phase, the domains containing the polymeric toughening additive and the continuous phase containing the renewable polyester, further wherein the composition exhibits an Izod impact strength of 0.3 Joules per centimeter or more, measured at 23°C according to ASTM D256-10 (Method A), and a tensile elongation at break of 10% or more, measured at 23°C according to ASTM D638-10, and wherein the ratio of the glass transition temperature of the thermoplastic composition to the glass transition temperature of the renewable polyester is from 0.7 to 1.3.