mhurhangee/ep-ind-claims huggingface dataset:
A seal segment for bounding a hot gas flow path within a gas turbine engine, comprising: a plate having an inboard side which bounds the hot gas flow path in use, an outboard side and fore and aft cooling circuits, wherein the fore and aft cooling circuits are fluidically separated from one another within the plate and each has at least one tortuous path between an inlet (260a,b, 262a,b) on the outboard side of the plate and an exhaust (240a,b, 264a,b), characterised in that: the fore cooling circuit includes passageways which principally traverse a circumferential length of the plate includes at least one exhaust (240a,b) in a circumferential edge (280a,b) of the plate and the aft cooling circuit includes passageways which principally extend along the axial length of the plate and at least one exhaust (264a,b) in the trailing edge of the plate. a plate having an inboard side which bounds the hot gas flow path in use, an outboard side and fore and aft cooling circuits, wherein the fore and aft cooling circuits are fluidically separated from one another within the plate and each has at least one tortuous path between an inlet (260a,b, 262a,b) on the outboard side of the plate and an exhaust (240a,b, 264a,b), characterised in that: the fore cooling circuit includes passageways which principally traverse a circumferential length of the plate includes at least one exhaust (240a,b) in a circumferential edge (280a,b) of the plate and the aft cooling circuit includes passageways which principally extend along the axial length of the plate and at least one exhaust (264a,b) in the trailing edge of the plate. the fore cooling circuit includes passageways which principally traverse a circumferential length of the plate includes at least one exhaust (240a,b) in a circumferential edge (280a,b) of the plate and the aft cooling circuit includes passageways which principally extend along the axial length of the plate and at least one exhaust (264a,b) in the trailing edge of the plate.
A method to control an internal combustion engine provided with a low-pressure exhaust gas recirculation EGR circuit (EGR LP) comprising an intake manifold which receives a mixture of fresh air taken in from the outside and exhaust gases through an intake pipe; the internal combustion engine comprises, furthermore, a first linear sensor, which is arranged along the intake pipe and is designed to measure the quantity of oxygen available in the mixture of fresh air taken in and exhaust gases flowing through the intake pipe, and a second linear sensor, which is arranged along an exhaust pipe and is designed to measure the quantity of oxygen and the air/fuel equivalence ratio of the flow of exhaust gases; the method comprises the steps of: determining a control current of the first sensor and a control current of the second sensor; determining, by means of the control current of the second sensor, a percentage (O 2) of virtual oxygen available in the flow of exhaust gases; and in case the exhaust air/fuel equivalence ratio is rich, updating the control current of the first sensor as a function of the control current of the second sensor; determining, by means of the control current of the first sensor, the percentage (O 2) of oxygen contained in the mixture of fresh air taken in and exhaust gases flowing through the intake pipe; and adding the percentage (O 2) of virtual oxygen available in the flow of exhaust gases to the percentage (O 2) of oxygen contained in the mixture of fresh air taken in and exhaust gases flowing through the intake pipe; and determining a quantity (R EGR) representing the incidence of the low-pressure exhaust gas recirculation EGR circuit (EGR LP) on the mixture of fresh air taken in from the outside and exhaust gases flowing through the intake pipe as a function of the percentage (O 2) of oxygen contained in the volume of the mixture of fresh air taken in and exhaust gases flowing through the intake pipe. determining a control current of the first sensor and a control current of the second sensor; determining, by means of the control current of the second sensor, a percentage (O 2) of virtual oxygen available in the flow of exhaust gases; and in case the exhaust air/fuel equivalence ratio is rich, updating the control current of the first sensor as a function of the control current of the second sensor; determining, by means of the control current of the first sensor, the percentage (O 2) of oxygen contained in the mixture of fresh air taken in and exhaust gases flowing through the intake pipe; and adding the percentage (O 2) of virtual oxygen available in the flow of exhaust gases to the percentage (O 2) of oxygen contained in the mixture of fresh air taken in and exhaust gases flowing through the intake pipe; and determining a quantity (R EGR) representing the incidence of the low-pressure exhaust gas recirculation EGR circuit (EGR LP) on the mixture of fresh air taken in from the outside and exhaust gases flowing through the intake pipe as a function of the percentage (O 2) of oxygen contained in the volume of the mixture of fresh air taken in and exhaust gases flowing through the intake pipe.
An easily dismantlable adhesive tape comprising an adhesive layer made of a dismantlable adhesive composition including an acrylic polymer, and an acid catalyst or an acid generator, wherein the acrylic polymer includes a (meth)acrylate monomer having a carboxyl precursor group, 2-ethyl hexyl acrylate, and a monomer having a polar group as a monomer.
A process for producing a rigid open-cell foam, which comprises mixing and spraying onto a substrate, by a spraying method, a liquid component which comprises a polyol, a blowing agent, a surfactant and a catalyst, and a liquid component which comprises a polyisocyanate compound, and subjecting the mixture on the substrate to foaming and a reaction for curing, wherein the polyol comprises the following polyols, and, and based on the entire amount of the polyol, the content of the polyol is from 45 to 80 mass%, the content of the polyol is from 10 to 40 mass%, the content of the polyol is from 5 to 30 mass%, and the total content of the polyols, and is from 90 to 100 mass%, and as the blowing agent, water is used, polyol: a polyol that has a hydroxyl value of from 100 to 900 mgKOH/g, obtainable by ring-opening addition of an alkylene oxide to an initiator that contains no nitrogen atom and has from 2 to 8 functionality, or a polyhydric alcohol that contains no nitrogen atom and has from 2 to 8 functionality and a hydroxy value of from 100 to 900 mgKOH/g, polyol: a polyol that has a hydroxy value of from 20 to 56 mgKOH/g and a terminal oxyethylene group content of from 5 to 15 mass%, obtainable by ring-opening addition of an alkylene oxide other than ethylene oxide, to an initiator that contains no nitrogen atom and has from 2 to 8 functionality, followed by ring-opening addition of ethylene oxide, polyol: a polyol that has a hydroxy value of from 50 to 350 mgKOH/g, obtainable by ring-opening addition of ethylene oxide and an alkylene oxide other than ethylene oxide, to an initiator that contains nitrogen atom(s) and has from 3 to 5 functionality, wherein the amount of ethylene oxide based on the entire amount of the alkylene oxide is from 30 to 80 mass%.
Cerdulatinib or a pharmaceutically acceptable salt thereof for use in treating a hematologic cancer in a human patient in need thereof, wherein said use comprises administering to the patient an effective amount of cerdulatinib or pharmaceutically acceptable salt thereof; wherein: the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 60 mg and is administered as 30 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 50 mg and is administered as 25 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 40 mg and is administered as 20 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 30 mg and is administered as 15 mg twice daily. the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 60 mg and is administered as 30 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 50 mg and is administered as 25 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 40 mg and is administered as 20 mg twice daily; or the effective amount of cerdulatinib or pharmaceutically acceptable salt thereof is 30 mg and is administered as 15 mg twice daily.
A field emission device, comprising: a collector; a nozzle block disposed facing the collector, the nozzle block being provided with a plurality of nozzles discharging a polymer solution; and a power supply applying high voltage between the collector and the nozzle block, wherein one of a positive electrode and a negative electrode of the power supply is connected to the collector, while a remaining one of the positive electrode and the negative electrode of the power supply is connected to the nozzle block and a potential of the remaining one drops to a ground potential, the field emission device forming, through field emission, nanofibers on a long sheet that is being transferred at a predetermined transfer speed, the field emission device further comprising an auxiliary belt device, comprising: an auxiliary belt comprising an insulating and porous endless belt rotatably provided in such a way as to encircle the collector; and an auxiliary belt drive unit rotating the auxiliary belt at the transfer speed of the long sheet. a collector; a nozzle block disposed facing the collector, the nozzle block being provided with a plurality of nozzles discharging a polymer solution; and a power supply applying high voltage between the collector and the nozzle block, wherein one of a positive electrode and a negative electrode of the power supply is connected to the collector, while a remaining one of the positive electrode and the negative electrode of the power supply is connected to the nozzle block and a potential of the remaining one drops to a ground potential, the field emission device forming, through field emission, nanofibers on a long sheet that is being transferred at a predetermined transfer speed, the field emission device further comprising an auxiliary belt device, comprising: an auxiliary belt comprising an insulating and porous endless belt rotatably provided in such a way as to encircle the collector; and an auxiliary belt drive unit rotating the auxiliary belt at the transfer speed of the long sheet.
A temperature sensing tape which is structured to be arranged resting on a surface of a building, said temperature sensing tape comprising a thin support layer having an elongated shape which extends along a longitudinal axis and is made of electrically insulating flexible material, said support layer is made by a high flexibility thin plastic film that can be cut transversally to said longitudinal axis in order to vary its longitudinal dimension, two electric wires, which are arranged on/in said support layer, extend about rectilinear and parallel to said longitudinal axis and have, about in the area of at least one first end of the tape, respective electric connection terminals, a plurality of electric resistor components which are arranged in series along a said electric wire at pre-set distances from one another, a plurality of thermally actuated electric devices, each of which is connected between a said wire and the other wire at a respective electric resistor component, and is designed to be actuated based on the temperature of the portion of layer of the tape which houses the electric device to cause a variation in electric resistance between said electric connection terminals which is indicative of the position of the electric device along said tape. said temperature sensing tape comprising a thin support layer having an elongated shape which extends along a longitudinal axis and is made of electrically insulating flexible material, said support layer is made by a high flexibility thin plastic film that can be cut transversally to said longitudinal axis in order to vary its longitudinal dimension, two electric wires, which are arranged on/in said support layer, extend about rectilinear and parallel to said longitudinal axis and have, about in the area of at least one first end of the tape, respective electric connection terminals, a plurality of electric resistor components which are arranged in series along a said electric wire at pre-set distances from one another, a plurality of thermally actuated electric devices, each of which is connected between a said wire and the other wire at a respective electric resistor component, and is designed to be actuated based on the temperature of the portion of layer of the tape which houses the electric device to cause a variation in electric resistance between said electric connection terminals which is indicative of the position of the electric device along said tape.
Device for handling slides, and/or cassettes, for specimens of biological material, said slides or cassettes comprising two opposite main surfaces (4, 5) and one or more minor side surfaces (6a, 6b, 6c, 6d), said device comprising at least one supporting container in which a plurality of cassettes or slides are inserted and supported in at least one rest position wherein said cassettes or slides are arranged in succession, preferably in a plurality of spaces, said container comprising guide means for the insertion and support of at least one slide or cassette in said container, the device comprising displacing means to displace at least one slide or at least one cassette from said rest position towards at least one operative position, while holding said slide or said cassette inside said container, characterized in that said displacing means comprise at least one body contacting directly, or indirectly, at least one slide, or at least one cassette, the body comprising at least one inclined and/or curved surface to displace the at least one slide or at least one cassette from said rest position towards at least one operative position, wherein said displacing means are configured to move relatively to said at least one container along a line, or parallel to said line, along which the slides or cassettes are arranged in succession such that the slides or cassettes are displaced in succession from said rest position to said operative position.
A device for limiting the flow of a fluid, in particular the flow of water in a sanitary fitting, with a substantially cylindrical hollow inlet body for the fluid, and with a substantially cylindrical outlet body for the fluid, which outlet body is rotatably connected to the inlet body about a common longitudinal axis, characterized in that the outlet body conveys the fluid further via a transverse bore and an adjoining cavity in longitudinal axis, wherein the inlet body has a recess extending in the longitudinal axis and forming a throttle valve together with the transverse bore in the outlet body, wherein in a first radial position of transverse bore and recess relative to each other a maximum flow is settable, in a second radial position a minimum flow is settable and in an intermediate position a defined flow for the fluid from the entry of the inlet body to the exit of the outlet body is settable, wherein the cavity in the outlet body leads into a mixing chamber having at least one lateral suction bore from which a further fluid can be fed in from outside the outlet body, and wherein, following the mixing chamber, a nozzle element is arranged within the outlet body, which nozzle element is adjustable along the longitudinal axis of the outlet body and can dip into the depth of the mixing chamber with its upper rim, and with a clamping device (35, 36) which fixes the set radial position of inlet body and outlet body relative to each other.
A spent nuclear fuel rod canister, comprising: a submersible pressure vessel comprising a sealed casing that defines an interior cavity, the casing comprising a corrosion resistant and heat conductive material with a thermal conductivity of above about 7.0 watts per meter per kelvin, the submersible pressure vessel further having a perforated lower support plate; and a rack enclosed within the interior cavity and positioned adjacent the perforated lower support plate, the rack being configured to support one or more spent nuclear fuel rods; a riser supported within the submersible pressure vessel by the perforated lower support plate and by an upper support ring extending from the casing to the riser, the upper support ring having perforations or large openings, the riser defining a first fluid pathway through the riser between a top portion of the interior cavity and a bottom portion of the interior cavity; and an annulus defined between the riser and the casing, the annulus further defining a second fluid pathway, the second fluid pathway being coupled to the first fluid pathway and extending through the perforations or large openings of the upper support ring, through the annulus, and fluidly coupled to the bottom portion of the interior cavity through the perforated lower support plate; characterized by a heat exchanger disposed exterior to the casing and being in fluid communication with the interior cavity, the heat exchanger having a horizontal upper tube header and a horizontal lower tube header joined by a series of vertical heat exchanger tubes. a submersible pressure vessel comprising a sealed casing that defines an interior cavity, the casing comprising a corrosion resistant and heat conductive material with a thermal conductivity of above about 7.0 watts per meter per kelvin, the submersible pressure vessel further having a perforated lower support plate; and a rack enclosed within the interior cavity and positioned adjacent the perforated lower support plate, the rack being configured to support one or more spent nuclear fuel rods; a riser supported within the submersible pressure vessel by the perforated lower support plate and by an upper support ring extending from the casing to the riser, the upper support ring having perforations or large openings, the riser defining a first fluid pathway through the riser between a top portion of the interior cavity and a bottom portion of the interior cavity; and an annulus defined between the riser and the casing, the annulus further defining a second fluid pathway, the second fluid pathway being coupled to the first fluid pathway and extending through the perforations or large openings of the upper support ring, through the annulus, and fluidly coupled to the bottom portion of the interior cavity through the perforated lower support plate; characterized by a heat exchanger disposed exterior to the casing and being in fluid communication with the interior cavity, the heat exchanger having a horizontal upper tube header and a horizontal lower tube header joined by a series of vertical heat exchanger tubes.
A liquid crystal composition that has negative dielectric anisotropy, and contains at least one polar compound selected from the group of compounds represented by formula as a first additive: wherein, in formula, R 1 is hydrogen, halogen, alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, alkenyl having 2 to 12 carbons, alkyl having 1 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine, or alkenyl having 2 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine; R 2 is a group represented by -OH, -OR 0, -NH 2, -NHR 0 or -N(R 0) 2, in which R 0 is alkyl having 1 to 5 carbons, and in the alkyl, at least one piece of -CH 2 - may be replaced by -O-, and at least one piece of -CH 2 CH 2 - may be replaced by -CH=CH-, and in the groups, at least one hydrogen may be replaced by fluorine; ring A and ring B are independently, 1,4-cyclohexylene, 1,4-cyclohexenylene, 1,4-phenylene, naphthalene-1,2-diyl, naphthalene-1,3-diyl, naphthalene-1,4-diyl, naphthalene-1,5-diyl, naphthalene-1,6-diyl, naphthalene-1,7-diyl, naphthalene-1,8-diyl, naphthalene-2,3-diyl, naphthalene-2,6-diyl, naphthalene-2,7-diyl, tetrahydropyran-2,5-diyl, 1,3-dioxane-2,5-diyl, pyrimidine-2,5-diyl, pyridine-2,5-diyl, fluorene-2,7-diyl, phenanthrene-2,7-diyl or anthracene-2,6-diyl, and in the rings, at least one hydrogen may be replaced by fluorine, chlorine, alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, or alkyl having 1 to 12 carbons in which at least one hydrogen is replaced by fluorine or chlorine; Z 1 is a single bond, -CH 2 CH 2 -, -CH=CH-, -C≡C-, -COO-, -OCO-, -CF 2 O-, -OCF 2 -, -CH 2 O--OCH 2 - or -CF=CF-; Sp 1 and Sp 2 are independently a single bond or alkylene having 1 to 7 carbons, and in the alkylene, at least one piece of -CH 2 - may be replaced by -O-, -COO- or -OCO-, and at least one piece of -CH 2 CH 2 - may be replaced by -CH=CH-, and in the groups, at least one hydrogen may be replaced by fluorine; and a is 0, 1, 2, 3 or 4.
An air conditioning system (100, 200, 300, 500) comprising: an air conditioner that includes an outdoor unit and an indoor unit that configures a refrigerant circuit together with the outdoor unit and is for being installed in a target space, with the air conditioner cooling or heating the target space by causing refrigerant to circulate in the refrigerant circuit during operation; and an air conditioning control component that is configured to control the running of the air conditioner; characterized in that the air conditioning control component is configured to not allow operation of the air conditioner to start in a case where a signal from a ventilation unit that includes a ventilation fan (43, 44, 81) for ventilation and ventilates the target space and that is installed independently from the air conditioner or a refrigerant leak sensor disposed in the target space configured to detect refrigerant leakage in the target space is not input to the air conditioning control component. an air conditioner that includes an outdoor unit and an indoor unit that configures a refrigerant circuit together with the outdoor unit and is for being installed in a target space, with the air conditioner cooling or heating the target space by causing refrigerant to circulate in the refrigerant circuit during operation; and an air conditioning control component that is configured to control the running of the air conditioner; characterized in that the air conditioning control component is configured to not allow operation of the air conditioner to start in a case where a signal from a ventilation unit that includes a ventilation fan (43, 44, 81) for ventilation and ventilates the target space and that is installed independently from the air conditioner or a refrigerant leak sensor disposed in the target space configured to detect refrigerant leakage in the target space is not input to the air conditioning control component.