mhurhangee/ep-ind-claims huggingface dataset:
A device for the removal of toxic substances from dialysate fluid, blood or blood plasma, said device comprising: i) a sorption-filter (2, E) for removing toxins, toxic solutes, toxic small and middle-sized molecules and protein bound toxins from the dialysate fluid, blood or bloodplasma, said sorption filter (2, E) comprising a sorbent material that is a nanostructured sorption material captured in a porous polymer matrix, wherein the pores in said porous polymer matrix are of a size that allows the entry into said matrix of substances sought to be removed from said liquid while preventing the escape of said nanostructured sorption material and/or preventing the entry into said matrix of substances not sought to be removed from said liquid; said sorption filter being contained in a housing (14, 15); ii) an inlet for entry of dialysate fluid, blood or blood plasma into said device; iii) an outlet for the removal of purified dialysate fluid, blood or blood plasma from said device, and iv) a conduit connecting said inlet with said outlet and holding said sorption filter such that said dialysate fluid, blood or blood plasma must pass through said sorption filter when flowing from said inlet to said outlet. i) a sorption-filter (2, E) for removing toxins, toxic solutes, toxic small and middle-sized molecules and protein bound toxins from the dialysate fluid, blood or bloodplasma, said sorption filter (2, E) comprising a sorbent material that is a nanostructured sorption material captured in a porous polymer matrix, wherein the pores in said porous polymer matrix are of a size that allows the entry into said matrix of substances sought to be removed from said liquid while preventing the escape of said nanostructured sorption material and/or preventing the entry into said matrix of substances not sought to be removed from said liquid; said sorption filter being contained in a housing (14, 15); ii) an inlet for entry of dialysate fluid, blood or blood plasma into said device; iii) an outlet for the removal of purified dialysate fluid, blood or blood plasma from said device, and iv) a conduit connecting said inlet with said outlet and holding said sorption filter such that said dialysate fluid, blood or blood plasma must pass through said sorption filter when flowing from said inlet to said outlet.
A stack of 2 or more fuel cells, each of said fuel cells comprising a passageway (25, 26, 29, 30, 31) for a cooling medium, said passageway comprising a branch (25A, 25B) for branching into 2 or more sub-passageways (29, 29), a cooling medium inlet manifold opening, a cooling medium outlet manifold opening, 2 or more cooling medium flow channels, a cooling medium supply piping and/or a cooling medium exhaust piping, said cooling medium inlet manifold opening and said cooling medium outlet manifold opening are formed at given corresponding locations of the respective fuel cell and are joined respectively to form a cooling medium supply manifold for a cooling medium passing through each fuel cell in the through thickness direction, characterized by barrier means (32, 47c) between an upstream portion (31 a, 47a) of said branch (25A, 25B) and a downstream portion (31 b, 47c) of said branch, wherein due to said barrier means (37, 47c) said upstream portion (31 a, 47a) will be filled with the cooling medium.
A gas turbine engine, comprising: a core engine including at least a compressor section, a combustor section and a turbine section (46, 54) disposed along a central axis; a fan coupled to be driven by the turbine section; a fan nacelle around the fan, and a bypass passage extending between the fan nacelle and the core engine; and a variable area fan nozzle (VAFN) extending at least partially around the central axis and defining an exit area of the bypass passage, the VAFN being selectively movable to vary the exit area, the VAFN including a body defining an airfoil cross-section shape, the VAFN including a wall (72, 74) having a mechanical property distribution, in accordance with a computer-simulated vibration profile of a flutter characteristic of the VAFN; wherein the wall includes a metallic alloy; and wherein the mechanical property distribution is from a variation in material chemical composition of the wall. a core engine including at least a compressor section, a combustor section and a turbine section (46, 54) disposed along a central axis; a fan coupled to be driven by the turbine section; a fan nacelle around the fan, and a bypass passage extending between the fan nacelle and the core engine; and a variable area fan nozzle (VAFN) extending at least partially around the central axis and defining an exit area of the bypass passage, the VAFN being selectively movable to vary the exit area, the VAFN including a body defining an airfoil cross-section shape, the VAFN including a wall (72, 74) having a mechanical property distribution, in accordance with a computer-simulated vibration profile of a flutter characteristic of the VAFN; wherein the wall includes a metallic alloy; and wherein the mechanical property distribution is from a variation in material chemical composition of the wall.
A carbamate compound represented by the formula: wherein, R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2, R 3, R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a halogen atom, a C1-C3 alkyl group or a C1-C3 alkoxy group; and m represents any one of integers from 0 to 3. R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2, R 3, R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a halogen atom, a C1-C3 alkyl group or a C1-C3 alkoxy group; and m represents any one of integers from 0 to 3.
An information processing device (111, 1003, 3007, 6003, 6009) that is connectable to a first storage unit (2, 2A, 3002) and a second storage unit (3, 3003), the first storage unit (2, 2A, 3002) including a readable and writable first memory, the second storage unit (3, 3003) including a readable and writable second memory, the second storage unit including a data migration log area (450, 550), characterized in that the information processing device (111, 1003, 3007, 6003, 6009) includes a control unit configured to: determine a storage status of the first storage unit (2, 2A, 3002) based on reliability information acquired from the first storage unit (2, 2A, 3002), when the storage status of the first storage unit (2, 2A, 3002) is determined as a protected state based on the reliability information, write first data in only the second storage unit (3, 3003) of the first and second storage units (2, 2A, 3002, 3, 3003), when a read target address is recorded in the data migration log area (450, 550), read second data from the second storage unit (3, 3003) and, when the read target address is not recorded in the data migration log area (450, 550), read third data from the first storage unit (2, 2A, 3002), when writing the first data in the second storage unit (3, 3003), record a logical address of the first data written in the second storage unit (3, 3003) into the data migration log area (450, 550), and when the storage status of the first storage unit (2, 2A, 3002) is not determined as the protected state based on the reliability information, read fourth data from the first storage unit (2, 2A, 3002). determine a storage status of the first storage unit (2, 2A, 3002) based on reliability information acquired from the first storage unit (2, 2A, 3002), when the storage status of the first storage unit (2, 2A, 3002) is determined as a protected state based on the reliability information, write first data in only the second storage unit (3, 3003) of the first and second storage units (2, 2A, 3002, 3, 3003), when a read target address is recorded in the data migration log area (450, 550), read second data from the second storage unit (3, 3003) and, when the read target address is not recorded in the data migration log area (450, 550), read third data from the first storage unit (2, 2A, 3002), when writing the first data in the second storage unit (3, 3003), record a logical address of the first data written in the second storage unit (3, 3003) into the data migration log area (450, 550), and when the storage status of the first storage unit (2, 2A, 3002) is not determined as the protected state based on the reliability information, read fourth data from the first storage unit (2, 2A, 3002).
A turbomachine, having a securing device for axially securing a blade root of a blade in a groove of a rotor of the turbomachine, wherein the outer contour of the securing device which faces a groove wall, particularly a groove base, of the groove is curved at least in some regions thereof, and has different radii (R1, R2, R3) in different regions, characterized in that segments of the outer contour with different radii (R1, R2, R3) at least partially form a securing device contact region which is intended to be brought into contact with a groove contact region of the groove wall, wherein an angle of inclination (α) between a tangent on the groove wall and a straight line which is perpendicular to a straight connection line between a rotor axis and a groove center point is greater than the arctangent of the friction value in the contact region between the securing device and the groove wall, particularly the groove base, such that the contact region is outside of a self-locking region.
An assembling method of a vehicular air-conditioning apparatus including various equipment, which is required for air-conditioning a vehicle, mounted in a vehicular-air-conditioner frame on a production line, the assembling method of the vehicular air-conditioning apparatus comprising the steps of: - modularizing a refrigerant cycle including at least a compressor, an indoor heat exchanger, and an outdoor heat exchanger and a refrigerant gas-liquid separator, among the various equipment, that are connected with refrigerant pipes by assembling the refrigerant cycle off the production line; - incorporating the modularized refrigerant cycle into assembly work on the production line as a refrigerant cycle module; - providing a U-shaped notch in an upper portion of a partition plate provided in a substantially middle portion of the frame, wherein the partition plate forms an indoor compartment and an outdoor compartment by partitioning the vehicular-air-conditioner frame in the length direction of the vehicle; - receiving a refrigerant pipe of the refrigeration cycle module into the notch from above the notch when mounting the refrigerant cycle module into the frame, wherein the compressor and the refrigerant gas-liquid separator are provided on one side relative to the center line of the outdoor compartment; - mounting an indoor fan on the center line of the indoor compartment in the length direction of the vehicle; - securing the indoor heat exchanger on one side of an indoor fan; - mounting an outdoor fan on the center line of the outdoor compartment in the length direction of the vehicle; and - securing the outdoor heat exchanger on one side of the outdoor fan. - modularizing a refrigerant cycle including at least a compressor, an indoor heat exchanger, and an outdoor heat exchanger and a refrigerant gas-liquid separator, among the various equipment, that are connected with refrigerant pipes by assembling the refrigerant cycle off the production line; - incorporating the modularized refrigerant cycle into assembly work on the production line as a refrigerant cycle module; - providing a U-shaped notch in an upper portion of a partition plate provided in a substantially middle portion of the frame, wherein the partition plate forms an indoor compartment and an outdoor compartment by partitioning the vehicular-air-conditioner frame in the length direction of the vehicle; - receiving a refrigerant pipe of the refrigeration cycle module into the notch from above the notch when mounting the refrigerant cycle module into the frame, wherein the compressor and the refrigerant gas-liquid separator are provided on one side relative to the center line of the outdoor compartment; - mounting an indoor fan on the center line of the indoor compartment in the length direction of the vehicle; - securing the indoor heat exchanger on one side of an indoor fan; - mounting an outdoor fan on the center line of the outdoor compartment in the length direction of the vehicle; and - securing the outdoor heat exchanger on one side of the outdoor fan.
A modulator of c-myc activity and a modulator of Notch activity for use in inducing proliferation or cell cycle reentry of a differentiated cochlear cell or a differentiated utricular cell for restoring or improving hearing and/or vestibular function in a subject, wherein the modulator of c-myc activity is a compound or composition that increases c-myc protein levels, a nucleic acid encoding a c-myc protein, or a c-myc protein; and wherein the modulator of Notch activity is a compound or composition that increases Notch protein levels, a nucleic acid encoding a Notch protein, a nucleic acid encoding an Notch Intracellular Domain (NICD) protein, a Notch protein, or an NICD protein. wherein the modulator of c-myc activity is a compound or composition that increases c-myc protein levels, a nucleic acid encoding a c-myc protein, or a c-myc protein; and wherein the modulator of Notch activity is a compound or composition that increases Notch protein levels, a nucleic acid encoding a Notch protein, a nucleic acid encoding an Notch Intracellular Domain (NICD) protein, a Notch protein, or an NICD protein.
A soundproof structure, comprising: a soundproof unit comprising a frame body having an opening portion passing therethrough in one direction, and a film, which is disposed so as to cover one open surface of the opening portion and vibrates according to a sound incident on the film; and a plate-shaped partition member separating two spaces, to which one or more soundproof units are attached, wherein the soundproof unit is attached to an end surface of the partition member, wherein the film is disposed in one end surface of the opening portion and another end surface of the opening portion is not blocked, wherein, a first natural vibration frequency of the film of the soundproof unit is 20000 Hz or less, and wherein the soundproof structure insulates sound by cancellation due to a phase difference between a sound leaking to a rear side of the partition member by a diffraction phenomenon and a sound passing through the soundproof unit. a soundproof unit comprising a frame body having an opening portion passing therethrough in one direction, and a film, which is disposed so as to cover one open surface of the opening portion and vibrates according to a sound incident on the film; and a plate-shaped partition member separating two spaces, to which one or more soundproof units are attached, wherein the soundproof unit is attached to an end surface of the partition member, wherein the film is disposed in one end surface of the opening portion and another end surface of the opening portion is not blocked, wherein, a first natural vibration frequency of the film of the soundproof unit is 20000 Hz or less, and wherein the soundproof structure insulates sound by cancellation due to a phase difference between a sound leaking to a rear side of the partition member by a diffraction phenomenon and a sound passing through the soundproof unit.
Exhaust gas treatment device for an exhaust system of an internal combustion engine, comprising: - an exhaust gas treatment housing with a housing inlet and with a housing outlet, - an exhaust gas treatment unit in the exhaust gas treatment housing with an exhaust gas treatment unit inlet following the housing inlet and with an exhaust gas treatment unit outlet, - an SCR catalytic converter device in the exhaust gas treatment housing with an SCR catalytic converter device inlet following the exhaust gas treatment unit outlet and with an SCR catalytic converter device outlet, - a reactant releasing device for releasing reactant upstream of the SCR catalytic converter device inlet, wherein an exhaust gas duct formed in an exhaust gas pipe leads in the exhaust gas treatment housing from the exhaust gas treatment unit outlet to the SCR catalytic converter device inlet such that exhaust gas leaving the SCR catalytic converter device at the SCR catalytic converter device outlet flows around the exhaust gas pipe in at least some areas, wherein the reactant releasing device for releasing reactant is disposed in the area of the exhaust gas treatment unit outlet, wherein the exhaust gas treatment unit outlet comprises a first flow deflection housing, and the reactant releasing device is arranged in the area of the first flow deflection housing, wherein an upstream end area of the exhaust gas pipe is arranged for receiving exhaust gas leaving the first flow deflection housing, and the reactant releasing device is arranged for releasing reactant in the direction of the upstream end area of the exhaust gas pipe, wherein the exhaust gas pipe is led in the exhaust gas treatment housing with a first pipe area from the exhaust gas treatment unit outlet to a second pipe area and is led in the second pipe area essentially at right angles to the housing longitudinal axis, characterized in that the exhaust gas pipe is led in the first pipe area laterally next to the SCR catalytic converter device in relation to the housing longitudinal axis, is led in the second pipe area along the SCR catalytic converter device outlet, and is led with a third pipe area laterally next to the SCR catalytic converter device in relation to the housing longitudinal axis to the SCR catalytic converter device inlet. - an exhaust gas treatment housing with a housing inlet and with a housing outlet, - an exhaust gas treatment unit in the exhaust gas treatment housing with an exhaust gas treatment unit inlet following the housing inlet and with an exhaust gas treatment unit outlet, - an SCR catalytic converter device in the exhaust gas treatment housing with an SCR catalytic converter device inlet following the exhaust gas treatment unit outlet and with an SCR catalytic converter device outlet, - a reactant releasing device for releasing reactant upstream of the SCR catalytic converter device inlet,
A process for manufacturing cis-hexafluoro-2-butene comprising the steps of: (a) contacting carbon tetrachloride with 3,3,3-trifluoropropene in the presence of an effective amount of a metal catalyst complex comprising a metal and an organic ligand under conditions effective to facilitate an addition reaction and to form a product stream comprising CF 3 CHClCH 2 CCl 3, (b) contacting HF with the CF 3 CHClCH 2 CCl 3 formed in step (a) under conditions effective to facilitate a fluorination reaction and to form a product stream mixture comprising cis- and trans-1,1,1,4,4,4-hexafluoro-2-butene, and isolating the cis-1,1,1,4,4,4-hexafluoro-2-butene from the mixture; and contacting trans-1,1,1,4,4,4-hexafluoro-2-butene with an isomerization catalyst to form cis-1,1,1,4,4,4-hexafluoro-2-butene. (a) contacting carbon tetrachloride with 3,3,3-trifluoropropene in the presence of an effective amount of a metal catalyst complex comprising a metal and an organic ligand under conditions effective to facilitate an addition reaction and to form a product stream comprising CF 3 CHClCH 2 CCl 3, (b) contacting HF with the CF 3 CHClCH 2 CCl 3 formed in step (a) under conditions effective to facilitate a fluorination reaction and to form a product stream mixture comprising cis- and trans-1,1,1,4,4,4-hexafluoro-2-butene, and isolating the cis-1,1,1,4,4,4-hexafluoro-2-butene from the mixture; and
Soil-working tool, comprising - a disk body which has a circumferential cutting edge, the cutting edge having a wave shape, the disk body having a mounting region without a wave shape, which mounting region lies within a mounting plane, the wave-shaped cutting edge extending between two parallel boundary planes (26a, 26b), the mounting region of the disk body without a wave shape and/or the mounting plane thereof being arranged outside a cutting edge extending region that extends between the boundary planes (26a, 26b), characterized in that the cutting edge has an axial extension between the boundary planes (26a, 26b) in a range of 8 to 17 cm. - a disk body which has a circumferential cutting edge, the cutting edge having a wave shape, the disk body having a mounting region without a wave shape, which mounting region lies within a mounting plane, the wave-shaped cutting edge extending between two parallel boundary planes (26a, 26b), the mounting region of the disk body without a wave shape and/or the mounting plane thereof being arranged outside a cutting edge extending region that extends between the boundary planes (26a, 26b), characterized in that the cutting edge has an axial extension between the boundary planes (26a, 26b) in a range of 8 to 17 cm.
A device comprising: an open frame; electroactive elastomer material secured within the frame and a region central to the elastomer material which form a diaphragm (42, 282, 308), wherein the central region is less flexible than the elastomer material and wherein the elastomer material is stretched to a concave or convex shape characterized in that the diaphragm forms a frustum structure. an open frame; electroactive elastomer material secured within the frame and a region central to the elastomer material which form a diaphragm (42, 282, 308), wherein the central region is less flexible than the elastomer material and wherein the elastomer material is stretched to a concave or convex shape
A portable dispenser for dispensing frozen confections from single-dose cartridges, the dispenser comprising: • a thermally insulated container for storing the single-dose cartridges and being adapted to be mounted on the back of a person; and • a discharge device capable of holding a single dose cartridge and discharging frozen confection from the cartridge, the discharge device comprising an actuator for activating the discharge device; wherein the device is adapted to be mounted on the front of the torso of the person and the actuator is disposed on a surface of the device facing away from the person on which the device is mounted; and wherein the actuator is a button and the device is activated by a single press of the button. • a thermally insulated container for storing the single-dose cartridges and being adapted to be mounted on the back of a person; and • a discharge device capable of holding a single dose cartridge and discharging frozen confection from the cartridge, the discharge device comprising an actuator for activating the discharge device;
A heat exchanger for heat exchange between a first fluid and a second fluid, comprising: a stack of spaced apart heat exchange elements forming a first fluid circuit for the first fluid; a header adapted to receive first ends of the heat exchange elements; and a housing adapted to at least partially encapsulate the heat exchange elements to form a second fluid circuit for the second fluid, the housing further comprising: at least one first plate; a second plate disposed parallelly with respect to the first plate, characterized in that, at least one of the plates (204, 206) comprises a first section that is in contact with the header and at least one second section that is free from the contact with the header, so that the header and the second section are able to move independently with respect to each other during operational mode of the heat exchanger.