mhurhangee/ep-ind-claims huggingface dataset:
A radiology device comprising a support capable of translational movement along an axis of translation relative to a frame of the device, the support being intended to support an object that is to be imaged, an ionising-ray generator (20; 30) and a detector (22; 32) configured to detect the rays emitted by the generator (20; 30), the generator (20; 30) and the detector (22; 32) facing one another, the generator (20; 30) comprising several sources each considered to emit from a focal point, the focal points of the various sources being distributed along an axis of the sources (26; 36), the detector (22; 32) extending along an axis of the detector (28; 38), the axis of the sources (26; 36) and the axis of the detector (28; 38) extending in the form of mutually intertwined helices about the axis of translation, each of the sources emitting a substantially flat and fan-shaped beam of ionising rays, the device further comprising a collimator having, facing each source, a slot configured to obtain the fan-shaped beam and produced in a plane of the collimator that is parallel to the axis of translation, the collimator extending mainly along an axis of the collimator parallel to the axis of the sources (26; 36), wherein the slots are not secant and characterised in that the slots (52; 56; 58) each extend mainly along a curve portion (52a; 56a; 58a) defined in the plane of the collimator and in that the projections, perpendicular to the axis of the collimator, of curve portions, corresponding to consecutive slots, onto the axis of the collimator, have a part (52b; 56b; 58b) in common.
Method for production of milk foam with adjustable temperature, whereby milk from at least one container (12, 14) and air delivered from a pump are suctioned as milk/air mixture, conveyed through a continuous-flow heater and thereby heated, and the mixture is subsequently converted into milk foam in a throttle device and is conveyed to an outlet, characterized in that the milk/air mixture is heated on the pressure side of the pump in a continuous flow heater designed as a thick-film heater with an electrical resistance element, the temperature of which is controllable, and is converted to milk foam, and a counterpressure is generated in the continuous-flow heater in the milk/air mixture by the throttle device, whereby the flow characteristic downstream of the throttle device is adaptable by means of a line section with an inner diameter which is different from that of the line upstream of the throttle device.
A compound or salt or solvate thereof having the general formula A wherein X14 is Lys, wherein the -NH 2 side chain group is functionalized by one of the groups selected from -4-Carboxy-4-hexadecanoylamino-butyryl-(γE-Palm) and -4-Carboxy-4-octadecanoylamino-butyryl- (γE-Stea); X15 is Asp or Glu; X16 is Ser or Glu; X17 is Lys, Arg, or Gin; X18 is Ala, Arg or Leu; X20 is Gln or Lys; and X28 is Ala or Asn; for use in a method of preventing and/or treating non-alcoholic fatty liver disease (NAFLD), particularly non-alcoholic fatty liver (NAFL), non-alcoholic steatohepatitis (NASH) and/or NAFLD-associated liver fibrosis. X14 is Lys, wherein the -NH 2 side chain group is functionalized by one of the groups selected from -4-Carboxy-4-hexadecanoylamino-butyryl-(γE-Palm) and -4-Carboxy-4-octadecanoylamino-butyryl- (γE-Stea); X15 is Asp or Glu; X16 is Ser or Glu; X17 is Lys, Arg, or Gin; X18 is Ala, Arg or Leu; X20 is Gln or Lys; and X28 is Ala or Asn; for use in a method of preventing and/or treating non-alcoholic fatty liver disease (NAFLD), particularly non-alcoholic fatty liver (NAFL), non-alcoholic steatohepatitis (NASH) and/or NAFLD-associated liver fibrosis.
A method comprising: positioning a bushing in a bore of a turbine housing; positioning a shaft of a wastegate in a bore of the bushing wherein the shaft comprises a shaft end; applying force to a plug of the wastegate to substantially center the plug with respect to a wastegate seat of the turbine housing; positioning a ring at least in part in the bore of the bushing; characterized by further comprising: positioning the ring between a shaft shoulder and the shaft end; and fixing the ring to the bushing, wherein: the shaft is translatable in an axially inward direction and in an axially outward direction; and the fixed ring and the shaft shoulder delimit axial translation of the wastegate in the axially outward direction. positioning a bushing in a bore of a turbine housing; positioning a shaft of a wastegate in a bore of the bushing wherein the shaft comprises a shaft end; applying force to a plug of the wastegate to substantially center the plug with respect to a wastegate seat of the turbine housing; positioning a ring at least in part in the bore of the bushing; characterized by further comprising: positioning the ring between a shaft shoulder and the shaft end; and fixing the ring to the bushing, wherein: the shaft is translatable in an axially inward direction and in an axially outward direction; and the fixed ring and the shaft shoulder delimit axial translation of the wastegate in the axially outward direction. positioning the ring between a shaft shoulder and the shaft end; and fixing the ring to the bushing, wherein: the shaft is translatable in an axially inward direction and in an axially outward direction; and the fixed ring and the shaft shoulder delimit axial translation of the wastegate in the axially outward direction.
Production method for a component by successive solidification of individual layers of powdered, granular or liquid material by irradiation with laser radiation with the aid of a laser, each layer being divided into an inner region and an edge region with an edge region surface, characterized in that for each layer, at least the edge region surface of the edge region of the respective layer is irradiated with an ultrashort-pulse laser after the irradiation by the laser.
Electric motor comprising a rotor which is mounted such that it can rotate in relation to a stator, wherein a first air-guiding contour, which generates an outwardly directed air stream when the rotor rotates in a reference rotation direction, is formed on a first partial segment of an end face of the rotor, and wherein a second air-guiding contour, which generates an inwardly directed air stream when the rotor rotates in the reference rotation direction, is formed on a second partial segment of the same end face, having a housing part of a motor housing, which housing part is situated opposite the end face of the rotor, wherein a mating air-guiding contour comprising webs extending predominantly at least approximately in the radial direction and slots, which are situated between said webs, is formed on a mating face of said housing part, which mating face adjoins the end face, wherein each slot opens out into a ventilation opening on the circumference of the mating surface, through which opening the motor interior is fluidically connected to the outside world, and wherein during rotation of the rotor, the air stream which is produced by the air-guiding contours (20a, 20b) continuously changes its direction at each stationary point over the periphery of the end face as the first partial segment and the second partial segment alternately pass by, wherein an oscillating air flow is produced by the rotor at each ventilation opening.
Pump arrangement at least comprising a pump having a pressure side and an intake side and a drive unit for the pump which are arranged in a common housing, wherein the drive unit is an axial flow electric drive which comprises a stator which is connected to the housing in a rotationally secure manner and a rotor which is arranged so as to be able to be rotated with respect to the housing, wherein the rotor is arranged with a first end face opposite the stator in an axial direction and forms an outer conveying means of the pump and has on an inner circumferential face a first conveying profile, wherein in a radial direction inside the rotor there is arranged an inner conveying means of the pump which has on an outer circumferential face a second conveying profile which cooperates with the first conveying profile in order to convey a fluid; characterized in that the inner conveying means is supported on a centering element which is connected to the housing in a rotationally secure manner; wherein at least the rotor and the outer conveying means are configured to be supported exclusively via the fluid conveyed by the pump; wherein at least between the first end face and the stator a first fluid guiding structure is arranged and connected to the pressure side so that during operation of the electric drive a gap between the first end face and the stator can be produced by the fluid.
A refrigerant leakage determination system comprising: a refrigerant circuit including a compressor, a condenser (24, 52a), an expansion mechanism (25, 51a), and an evaporator (52a, 24), the refrigerant leakage determination system further comprising a first determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit, by using a first state amount of refrigerant as a determination index, the first state amount including at least one of an outlet temperature of the condenser, a suction temperature of the compressor, and a discharge temperature of the compressor; and a second determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit, based on information different from the first state amount, characterized in that a determination result of the first determination unit is verified by using a determination result of the second determination unit. a refrigerant circuit including a compressor, a condenser (24, 52a), an expansion mechanism (25, 51a), and an evaporator (52a, 24), the refrigerant leakage determination system further comprising a first determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit, by using a first state amount of refrigerant as a determination index, the first state amount including at least one of an outlet temperature of the condenser, a suction temperature of the compressor, and a discharge temperature of the compressor; and a second determination unit that is configured to determine that refrigerant has leaked from the refrigerant circuit, based on information different from the first state amount, characterized in that a determination result of the first determination unit is verified by using a determination result of the second determination unit.
A method of producing an acellular organ, comprising: (a) subjecting an organ to a first supercritical fluid in the presence of a first co-solvent under a first pressure of 20-50 MPa (200-500 bar) at a first temperature between 30-50°C for a first period of 10-100 minutes; and (b) subjecting the first SCF treated organ of the step (a) with a continuous flow of a second SCF in the presence of a second co-solvent under a second pressure of 200-500 bar at a second temperature between 30-50°C for a second period of 10-100 minutes, wherein the flow rate of the second SCF is 10-30 liter per minute; wherein, the method does not comprise the step of treating the organ with an agent selected from the group consisting of an enzyme, an ion chelating agent, a detergent, a glycerol, and a combination thereof. (a) subjecting an organ to a first supercritical fluid in the presence of a first co-solvent under a first pressure of 20-50 MPa (200-500 bar) at a first temperature between 30-50°C for a first period of 10-100 minutes; and (b) subjecting the first SCF treated organ of the step (a) with a continuous flow of a second SCF in the presence of a second co-solvent under a second pressure of 200-500 bar at a second temperature between 30-50°C for a second period of 10-100 minutes, wherein the flow rate of the second SCF is 10-30 liter per minute;
A fused surge protective device module (280; 600), comprising: a first electrical terminal; a second electrical terminal; an overvoltage protection circuit connected between the first electrical terminal and the second electrical terminal; and a bimetallic fuse (200; 500) including a bimetallic fuse element (240; 540) connected in series with the overvoltage protection circuit between the first and second electrical terminals; wherein the bimetallic fuse element includes: a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; wherein the bimetallic fuse element is configured to disintegrate in response to a current flowing through the bimetallic fuse element to thereby disconnect the first electrical terminal from the second electrical terminal; wherein the bimetallic fuse element is configured to bend in a deformation direction, due to the difference in the coefficients of thermal expansion of the first and second metal layers, in response to heat generated in the bimetallic fuse element by the current flowing through the bimetallic fuse element; and wherein said bending assists in extinguishing electrical arcing from the bimetallic fuse element. a first electrical terminal; a second electrical terminal; an overvoltage protection circuit connected between the first electrical terminal and the second electrical terminal; and a bimetallic fuse (200; 500) including a bimetallic fuse element (240; 540) connected in series with the overvoltage protection circuit between the first and second electrical terminals; wherein the bimetallic fuse element includes: a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; a first metal layer (250; 550) having a first coefficient of thermal expansion; and a second metal layer (252; 552) having a second coefficient of thermal expansion; wherein the first coefficient of thermal expansion is greater than the second coefficient of thermal expansion; wherein the bimetallic fuse element is configured to disintegrate in response to a current flowing through the bimetallic fuse element to thereby disconnect the first electrical terminal from the second electrical terminal; wherein the bimetallic fuse element is configured to bend in a deformation direction, due to the difference in the coefficients of thermal expansion of the first and second metal layers, in response to heat generated in the bimetallic fuse element by the current flowing through the bimetallic fuse element; and wherein said bending assists in extinguishing electrical arcing from the bimetallic fuse element.
A fuser member 100 comprising: a substrate 110; a resilient layer disposed 120 over the substrate; an intermediate layer 130 disposed over the resilient layer, wherein the intermediate layer comprises a plurality of carbon nanotubes 134 dispersed in a polymer matrix 132; and a surface layer 140 disposed over the intermediate layer, wherein the polymer matrix 132 of the intermediate layer comprises a fluoroelastomer which comprises a vinylidene fluoride-containing fluoroelastomer cross-linked with a curing agent that is selected from a group consisting of a bisphenol compound, a diamino compound, an aminophenol compound, an amino-siloxane compound, an amino-silane, and phenol-silane compound; wherein the intermediate layer further comprises one or more filler particles 136 comprising metal oxides, silicon carbides, boron nitrides, and graphites, wherein the metal oxides are selected from the group consisting of silicon oxide, aluminum oxide, zirconium oxide, zinc oxide, tin oxide, iron oxide, magnesium oxide, manganese oxide, nickel oxide, copper oxide, antimony pentoxide, indium tin oxide, and mixtures thereof; and wherein the surface layer comprises a fluoropolymer selected from the group consisting of polytetrafluoroethylene, copolymer of tetrafluoroethylene and hexafluoropropylene, copolymer of tetrafluoroethylene and perfluoro(propyl vinyl ether), copolymer of tetrafluoroethylene and perfluoro(ethyl vinyl ether), copolymer of tetrafluoroethylene and perfluoro(methyl vinyl ether), and copolymer of tetrafluoroethylene, hexafluoropropylene and vinylidenefluoride. a substrate 110; a resilient layer disposed 120 over the substrate; an intermediate layer 130 disposed over the resilient layer, wherein the intermediate layer comprises a plurality of carbon nanotubes 134 dispersed in a polymer matrix 132; and a surface layer 140 disposed over the intermediate layer, wherein the polymer matrix 132 of the intermediate layer comprises a fluoroelastomer which comprises a vinylidene fluoride-containing fluoroelastomer cross-linked with a curing agent that is selected from a group consisting of a bisphenol compound, a diamino compound, an aminophenol compound, an amino-siloxane compound, an amino-silane, and phenol-silane compound; wherein the intermediate layer further comprises one or more filler particles 136 comprising metal oxides, silicon carbides, boron nitrides, and graphites, wherein the metal oxides are selected from the group consisting of silicon oxide, aluminum oxide, zirconium oxide, zinc oxide, tin oxide, iron oxide, magnesium oxide, manganese oxide, nickel oxide, copper oxide, antimony pentoxide, indium tin oxide, and mixtures thereof; and wherein the surface layer comprises a fluoropolymer selected from the group consisting of polytetrafluoroethylene, copolymer of tetrafluoroethylene and hexafluoropropylene, copolymer of tetrafluoroethylene and perfluoro(propyl vinyl ether), copolymer of tetrafluoroethylene and perfluoro(ethyl vinyl ether), copolymer of tetrafluoroethylene and perfluoro(methyl vinyl ether), and copolymer of tetrafluoroethylene, hexafluoropropylene and vinylidenefluoride.
A method for manufacturing an edible oil/fat with reduced content of glycidol and glycidol fatty acid esters, in which method a physically refined palm oil, RBDPO, having a 3-MCPD concentration of 1.5 mg/kg or less is used as raw material and a step of bleaching and deodorizing is carried out, the step of bleaching and deodorizing includes a bleaching work step and a deodorizing work step, wherein the bleaching work step includes a step of adding an aqueous solution of an acid and a bleaching step, the step of adding the aqueous solution of the acid is included immediately before the bleaching step in the bleaching work step, no other step is provided between the step of adding the aqueous solution of the acid and the bleaching step, and the content of glycidol and glycidol fatty acid esters is 1.0 mg/kg or less calculated as equivalent glycidol after the step of bleaching and deodorizing, wherein the deodorizing step is performed under the following conditions: a degree of vacuum of 100 to 800 Pa, an amount of water vapor used of 0.5 to 5 weight%, a deodorizing temperature of 230 to 260°C. the step of bleaching and deodorizing includes a bleaching work step and a deodorizing work step, wherein the bleaching work step includes a step of adding an aqueous solution of an acid and a bleaching step, the step of adding the aqueous solution of the acid is included immediately before the bleaching step in the bleaching work step, no other step is provided between the step of adding the aqueous solution of the acid and the bleaching step, and the content of glycidol and glycidol fatty acid esters is 1.0 mg/kg or less calculated as equivalent glycidol after the step of bleaching and deodorizing, wherein the deodorizing step is performed under the following conditions: a degree of vacuum of 100 to 800 Pa, an amount of water vapor used of 0.5 to 5 weight%, a deodorizing temperature of 230 to 260°C. a degree of vacuum of 100 to 800 Pa, an amount of water vapor used of 0.5 to 5 weight%, a deodorizing temperature of 230 to 260°C.
A microcapsule in which a liquid droplet is coated with a resin, wherein in the droplet, a pesticidally active solid ingredient is suspended in a compound of formula: wherein R represents a C1-C5 alkyl group.
NO x purification method of an exhaust purification system of an internal combustion engine in which a hydrocarbon feed valve for feeding hydrocarbons is arranged in an engine exhaust passage, an exhaust purification catalyst for reacting NO x contained in exhaust gas and reformed hydrocarbons is arranged in the engine exhaust passage downstream of the hydrocarbon feed valve, a downstream side air-fuel ratio sensor for detecting an air-fuel ratio of the exhaust gas is arranged in the engine exhaust passage downstream of the exhaust purification catalyst, precious metal catalysts (51, 52) are carried on an exhaust gas flow surface of the exhaust purification catalyst and a basic exhaust gas flow surface part is formed around the precious metal catalysts(51, 52), the exhaust purification catalyst reducing the NO x which is contained in exhaust gas if a concentration of hydrocarbons which flow into the exhaust purification catalyst is made to vibrate by within a predetermined range of amplitude and within a predetermined range of period and being increased in storage amount of NO x which is contained in exhaust gas if the vibration period of the hydrocarbon concentration is made longer than the predetermined range, at the time of engine operation, the concentration of hydrocarbons which flow into the exhaust purification catalyst is made to vibrate within the predetermined range of period by control of an injection period of hydrocarbons from the hydrocarbon feed valve, and the amplitude of the change of concentration of hydrocarbons which flow into the exhaust purification catalyst is made to become within the predetermined range of amplitude by control of an injection amount of hydrocarbons from the hydrocarbon feed valve based on an output signal of the downstream side air-fuel ratio sensor, characterized in that in said exhaust purification catalyst, NO x contained in exhaust gas and reformed hydrocarbons react whereby a reducing intermediate containing nitrogen and hydrocarbons is produced and wherein the injection period of the hydrocarbons is a period necessary for continued production of the reducing intermediate.
Sensing device for sensing a fluid, comprising an inlet port for receiving the fluid; a measurement chamber for sensing the fluid; a fluid channel coupling the inlet port and the measurement chamber for transporting fluid from the inlet port to the measurement chamber; and a fluid stop unit for stopping and controllably releasing the flow of fluid between the inlet port and the measurement chamber, comprising a fluidic stop element and a pressure control unit (300; 13; 96) for controlling a pressure in a first part of the fluid channel between the inlet port and the fluidic stop element by changing the pressure in the first part of the fluid channel to force the fluid past the at least one fluidic stop element; characterized in that the pressure control unit (300; 13; 96) comprises a cap arranged at a first section of the sensing device comprising the inlet port, the cap having an opened position and a closed position, wherein in the opened position the inlet port is uncovered by the cap and a first pressure is present in the first part of the fluid channel; and wherein in the closed position the inlet port is sealed by the cap and a second pressure is produced in the first part of the fluid channel; wherein the second pressure is higher than the first pressure to force the fluid in the fluid channel past the fluidic stop element into the measurement chamber.
An antibody, functional fragment, and derivative thereof, which binds specifically to the O-acetylated GD2 (OAcGD2) ganglioside, said antibody comprising: a) a humanized light chain variable region polypeptide having the amino acid sequence SEQ id n°112; and b) a humanized heavy chain variable region having the amino acid sequence SEQ id n°76. a) a humanized light chain variable region polypeptide having the amino acid sequence SEQ id n°112; and b) a humanized heavy chain variable region having the amino acid sequence SEQ id n°76.