mhurhangee/ep-ind-claims huggingface dataset:
An alpha helix mimetic β-catenin inhibitor compound for use in the treatment of hepatic fibrosis, selected from: 4-(((6S,9S,9aS)-1-(benzylcarbamoyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c][1,2,4]triazin-6-yl)methyl)phenyl dihydrogen phosphate, or (6S,9S,9aS)-N-benzyl-6-(4-hydroxybenzyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c][1,2,4]triazine-1-carboxamide, wherein the hepatic fibrosis results from steatohepatitis. 4-(((6S,9S,9aS)-1-(benzylcarbamoyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c][1,2,4]triazin-6-yl)methyl)phenyl dihydrogen phosphate, or (6S,9S,9aS)-N-benzyl-6-(4-hydroxybenzyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c][1,2,4]triazine-1-carboxamide, wherein the hepatic fibrosis results from steatohepatitis.
An aluminum alloy brazing sheet comprising a core material, a brazing filler material provided on one surface of the core material and formed of an Al-Si based alloy, and a sacrificial anode material provided on the other surface of the core material, the brazing sheet having a thickness of less than 200 μm, wherein the core material consists of more than 1.5% by mass and 2.5% or less by mass of Cu, and 0.5 to 2.0% by mass of Mn, and optionally: 0.05 to 0.5% by mass of Si, 0.05 to 0.5% by mass of Mg, and/or at least one or more elements selected from the group consisting of 0.01 to 0.30% by mass of Cr, 0.01 to 0.30% by mass of Zr, and 0.05 to 0.30% by mass of Ti, with the balance being Al and inevitable impurities, wherein the sacrificial anode material consists of 2.0 to 10.0% by mass of Zn, an Mg content in the sacrificial anode material being restricted to 0.10% or less by mass, and optionally: 0.05 to 0.5% by mass of Si, 0.1 to 2.0% by mass of Mn, 0.01 to 0.30% by mass of Ti, and/or at least one or more elements from 0.01 to 0.30% by mass of Cr, and 0.01 to 0.30% by mass of Zr, with the balance being Al and inevitable impurities, and wherein each of the brazing filler material and the sacrificial anode material has a thickness thereof in a range of 15 to 50 μm, and the total of cladding rates of the brazing filler material and sacrificial anode material is 50% or less. 0.05 to 0.5% by mass of Si, 0.05 to 0.5% by mass of Mg, and/or at least one or more elements selected from the group consisting of 0.01 to 0.30% by mass of Cr, 0.01 to 0.30% by mass of Zr, and 0.05 to 0.30% by mass of Ti, with the balance being Al and inevitable impurities, wherein the sacrificial anode material consists of 2.0 to 10.0% by mass of Zn, an Mg content in the sacrificial anode material being restricted to 0.10% or less by mass, and optionally: 0.05 to 0.5% by mass of Si, 0.1 to 2.0% by mass of Mn, 0.01 to 0.30% by mass of Ti, and/or at least one or more elements from 0.01 to 0.30% by mass of Cr, and 0.01 to 0.30% by mass of Zr, with the balance being Al and inevitable impurities, and wherein each of the brazing filler material and the sacrificial anode material has a thickness thereof in a range of 15 to 50 μm, and the total of cladding rates of the brazing filler material and sacrificial anode material is 50% or less. 0.05 to 0.5% by mass of Si, 0.1 to 2.0% by mass of Mn, 0.01 to 0.30% by mass of Ti, and/or at least one or more elements from 0.01 to 0.30% by mass of Cr, and 0.01 to 0.30% by mass of Zr, with the balance being Al and inevitable impurities, and wherein each of the brazing filler material and the sacrificial anode material has a thickness thereof in a range of 15 to 50 μm, and the total of cladding rates of the brazing filler material and sacrificial anode material is 50% or less.
An agricultural tractor control system comprising an electronic control unit arranged to receive a plurality of real time operating parameters each associated with operating functions of the tractor, and arranged to output control signals to a plurality of operating components, wherein the ECU is operable to receive and store a user-inputted macro comprising at least one condition and at least one command, the condition including an event of receiving of an operating parameter having a predetermined value and the command comprising the transmission of one of said output control signals, wherein the ECU is operable to run said macro during which the command is executed in response to the condition being met, wherein the system further comprises a user interface device in communication with that ECU, wherein the user interface device is arranged to receive a macro from the user and transmit the macro to the ECU, wherein the user interface device comprises a communications link with a remote electronic device, and wherein the user interface device can receive a predetermined macro from the remote electronic device via the communications link when commanded by a user, the system characterised in that the user interface device: comprises data entry means which allows the user to define and input the macro; is arranged to allow a user to select, as part of a condition definition process, an operating parameter from a displayed plurality of predetermined operating parameters; and is arranged to allow a user to define, as part of the condition definition process, said predetermined value which corresponds with the selected operating parameter.
A spark plug comprising: a center electrode; a ground electrode forming a gap with the center electrode; and a chip (31, 32) welded to at least one of the electrodes (5, 27), wherein: the chip (31, 32) has a thermal expansion coefficient smaller than a thermal expansion coefficient of the electrode (5, 27) to which the chip (31, 32) is welded; the difference between the content A (mass%) of a noble metal component in the chip (31, 32) and the content B (mass%) of a noble metal component in the electrode (5, 27) (A - B) is 50 mass% or more; a hole (38, 39) is present in an intermediate layer (34, 35) disposed between the chip (31, 32) and the electrode (5, 27); characterized in that in a cross section including a central axis (CL2, CL3) of the chip (31, 32), 0.1 ≤ N/L ≤ 0.4, where L is the length (mm) of a boundary of the chip (31, 32) and the intermediate layer (34, 35), and N is the length (mm) of the hole (38, 39) in a direction along the boundary of the chip (31, 32) and the intermediate layer (34, 35). a center electrode; a ground electrode forming a gap with the center electrode; and a chip (31, 32) welded to at least one of the electrodes (5, 27), the chip (31, 32) has a thermal expansion coefficient smaller than a thermal expansion coefficient of the electrode (5, 27) to which the chip (31, 32) is welded; the difference between the content A (mass%) of a noble metal component in the chip (31, 32) and the content B (mass%) of a noble metal component in the electrode (5, 27) (A - B) is 50 mass% or more; a hole (38, 39) is present in an intermediate layer (34, 35) disposed between the chip (31, 32) and the electrode (5, 27); characterized in that in a cross section including a central axis (CL2, CL3) of the chip (31, 32), 0.1 ≤ N/L ≤ 0.4, where L is the length (mm) of a boundary of the chip (31, 32) and the intermediate layer (34, 35), and N is the length (mm) of the hole (38, 39) in a direction along the boundary of the chip (31, 32) and the intermediate layer (34, 35).
A method of preparing a superabsorbent polymer, comprising: a) subjecting a monomer composition comprising a water-soluble ethylenic unsaturated monomer and a polymerization initiator to thermal polymerization or photopolymerization, thus preparing a hydrous gel polymer; b) drying the hydrous gel polymer; c) grinding the dried hydrous gel polymer wherein the grinding in c) comprises grinding the hydrous gel polymer to a particle size ranging from 150 to 850 μm; d) adding the ground hydrous gel polymer with particles having i) a particle size ranging from 2 nm to 50 μm, ii) a BET specific surface area of 300 to 1500 m 2 /g, iii) superhydrophobicity with a water contact angle of 125° or more and iv) a porosity of 50% or more and with a surface crosslinking agent; and e) performing a surface crosslinking reaction, wherein the particle size, the BET specific surface area, the superhydrophobicity and the porosity are measured as disclosed in the specification. a) subjecting a monomer composition comprising a water-soluble ethylenic unsaturated monomer and a polymerization initiator to thermal polymerization or photopolymerization, thus preparing a hydrous gel polymer; b) drying the hydrous gel polymer; c) grinding the dried hydrous gel polymer wherein the grinding in c) comprises grinding the hydrous gel polymer to a particle size ranging from 150 to 850 μm; d) adding the ground hydrous gel polymer with particles having i) a particle size ranging from 2 nm to 50 μm, ii) a BET specific surface area of 300 to 1500 m 2 /g, iii) superhydrophobicity with a water contact angle of 125° or more and iv) a porosity of 50% or more and with a surface crosslinking agent; and e) performing a surface crosslinking reaction,
An in vitro or ex vivo method of expanding cells, comprising incubating an input composition, said input composition comprising cells expressing a chimeric antigen receptor comprising an extracellular antigen-binding domain that specifically binds or recognizes an antigen, with a plurality of particles that are or comprise beads, wherein the plurality of particles comprise a mean diameter of between or between about 2 μm and 5 μm and have attached a binding molecule that specifically binds to or recognizes the antigen-binding domain, wherein: the antigen is CD19; the binding molecule is an anti-idiotypic antibody or antigen-binding fragment thereof that specifically binds to the antigen binding domain; and binding of the binding molecule to the antigen-binding domain induces expansion of the cells comprising the chimeric antigen receptor, thereby producing an output composition comprising expanded cells. the antigen is CD19; the binding molecule is an anti-idiotypic antibody or antigen-binding fragment thereof that specifically binds to the antigen binding domain; and binding of the binding molecule to the antigen-binding domain induces expansion of the cells comprising the chimeric antigen receptor, thereby producing an output composition comprising expanded cells.
A translucent alumina sintered body having fracture toughness of 4.5 MPa·m 0.5 or more, flexural strength of 350 MPa or more, and all light transmittance of a sample having a thickness of 1 mm to a visible light having a wavelength of 600 nm, of 60% or more.
A communication method for a multi-RAT network, wherein a network in an overlapping coverage area of the multi-RAT network serves as a basic network, the communication method comprising: retaining (101, 302, 402), in the overlapping coverage area of the multi-RAT network, a service channel and a common broadcast control channel of the basic network; receiving (102, 303, 405) a service request initiated by a terminal via the basic network; and notifying (103; 304), when the basic network is incapable of bearing the service request, a non-basic network to allocate a service channel of the non-basic network for the terminal, wherein the non-basic network refers to other networks except the basic network in the overlapping coverage area of the multi-RAT network; characterized in that the method further comprises: notifying (101, 302, 402) the non-basic network to deactivate all or part of the common broadcast control channels of the non-basic network and meanwhile retain a service channel of the non-basic network; and notifying, when cell load of the non-basic network is lower than a first preset threshold, the non-basic network to deactivate part of the service channels of the non-basic network, and at least one service channel of the non-basic network is retained for bearing a service request that the basic network fails to bear. retaining (101, 302, 402), in the overlapping coverage area of the multi-RAT network, a service channel and a common broadcast control channel of the basic network; receiving (102, 303, 405) a service request initiated by a terminal via the basic network; and notifying (103; 304), when the basic network is incapable of bearing the service request, a non-basic network to allocate a service channel of the non-basic network for the terminal, wherein the non-basic network refers to other networks except the basic network in the overlapping coverage area of the multi-RAT network; characterized in that the method further comprises: notifying (101, 302, 402) the non-basic network to deactivate all or part of the common broadcast control channels of the non-basic network and meanwhile retain a service channel of the non-basic network; and notifying, when cell load of the non-basic network is lower than a first preset threshold, the non-basic network to deactivate part of the service channels of the non-basic network, and at least one service channel of the non-basic network is retained for bearing a service request that the basic network fails to bear. notifying (101, 302, 402) the non-basic network to deactivate all or part of the common broadcast control channels of the non-basic network and meanwhile retain a service channel of the non-basic network; and notifying, when cell load of the non-basic network is lower than a first preset threshold, the non-basic network to deactivate part of the service channels of the non-basic network, and at least one service channel of the non-basic network is retained for bearing a service request that the basic network fails to bear.
Holographic medium containing a layer construction comprising a photopolymer layer B containing matrix polymers, writing monomers, photoinitiators, optionally at least one non-photopolymerizable component and optionally catalysts, free-radical stabilizers, solvents, additives and other assistant and/or added substances and at least one curable protective layer C containing at least one thermoplastic resin having a glass transition temperature between -20°C and 190°C, at least one reactive diluent, at least one photoinitiator and optionally at least one additive, wherein the protective layer C is at least partly joined to the areal photopolymer layer B, characterized in that all reactive diluents of the protective layer C are identical to at least one writing monomer of the photopolymer layer B.
A method for producing a dye-free medical towel from a dye-free cotton material, comprising: preparing the dye-free cotton material for processing by: disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; degreasing, after the preparing, the dye-free cotton material by: heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; forming, after the degreasing, the dye-free cotton material into a dye-free medical towel. preparing the dye-free cotton material for processing by: disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; disposing the dye-free cotton material into a container and adding first water at a first temperature to the container; and adding a scouring agent to the container to form a first solution, the first solution including the first water and the scouring agent, and soaking the dye-free cotton material in the first solution; degreasing, after the preparing, the dye-free cotton material by: heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; heating the solution to a second temperature greater than the first; adding a degreasing solution containing sodium hydroxide at 5% on weight of fiber and hydrogen peroxide at 10% on weight of fiber to the container to form a second solution, the second solution including the first water, the scouring agent, and the degreasing solution, and soaking the dye-free cotton material in the second solution; and removing the second solution; forming, after the degreasing, the dye-free cotton material into a dye-free medical towel.
A compressor comprising: an electric motor for driving a rotating shaft; and a shield for controlling the cooling within the hermetically cooled motor,the shield comprising: an insulator surface comprising a first side and a second side, the insulator surface configured to restrict the flow of a working fluid; the compressor comprising a magnetic bearing disposed adjacent to the electric motor, and the shield is disposed between the electric motor and the magnetic bearing; characterised in that the shield comprises at least one fastener aperture disposed in the insulator surface; and at least one venting aperture disposed in the insulator surface, the at least one venting aperture configured to control a pressure differential between the first side and the second side. an electric motor for driving a rotating shaft; and a shield for controlling the cooling within the hermetically cooled motor,the shield comprising: an insulator surface comprising a first side and a second side, the insulator surface configured to restrict the flow of a working fluid; the compressor comprising a magnetic bearing disposed adjacent to the electric motor, and the shield is disposed between the electric motor and the magnetic bearing; characterised in that the shield comprises at least one fastener aperture disposed in the insulator surface; and at least one venting aperture disposed in the insulator surface, the at least one venting aperture configured to control a pressure differential between the first side and the second side. an insulator surface comprising a first side and a second side, the insulator surface configured to restrict the flow of a working fluid; the compressor comprising a magnetic bearing disposed adjacent to the electric motor, and the shield is disposed between the electric motor and the magnetic bearing; characterised in that the shield comprises at least one fastener aperture disposed in the insulator surface; and at least one venting aperture disposed in the insulator surface, the at least one venting aperture configured to control a pressure differential between the first side and the second side. at least one fastener aperture disposed in the insulator surface; and at least one venting aperture disposed in the insulator surface, the at least one venting aperture configured to control a pressure differential between the first side and the second side.
A method in an emulator controller for obtaining a plurality of upstream signals for transmission to an optical module, wherein the emulator controller monitors a control interface and control signals for an optical module, the method comprising: receiving, from a remote optical module emulator, a first serial data stream comprising the plurality of upstream signals multiplexed into a plurality of bits; wherein the first data stream comprises a plurality of frames, each frame comprising a multi-frame alignment bit, wherein each multi-frame alignment bit comprises a bit from a predetermined multi-frame alignment word, MFAW, wherein the predetermined MFAW comprises a sequence of N bits; and de-multiplexing the plurality of upstream signals based on each multi-frame alignment bit within each respective frame; locating, in the first serial data stream, the predetermined MFAW; wherein each multi-frame alignment bit populates a predetermined position within one of the plurality of frames, wherein the step of locating comprises; receiving a first bit causing a toggle in the first serial data stream; setting the first bit as a first bit of the MFAW in a first frame of N consecutive frames, setting the position of the first bit as the predetermined position within the first frame; and determining whether bits populating the predetermined position in a following N-1 consecutive frames of the first serial data stream match the sequence of N bits. receiving, from a remote optical module emulator, a first serial data stream comprising the plurality of upstream signals multiplexed into a plurality of bits; wherein the first data stream comprises a plurality of frames, each frame comprising a multi-frame alignment bit, wherein each multi-frame alignment bit comprises a bit from a predetermined multi-frame alignment word, MFAW, wherein the predetermined MFAW comprises a sequence of N bits; and de-multiplexing the plurality of upstream signals based on each multi-frame alignment bit within each respective frame; locating, in the first serial data stream, the predetermined MFAW; wherein each multi-frame alignment bit populates a predetermined position within one of the plurality of frames, wherein the step of locating comprises; receiving a first bit causing a toggle in the first serial data stream; setting the first bit as a first bit of the MFAW in a first frame of N consecutive frames, setting the position of the first bit as the predetermined position within the first frame; and determining whether bits populating the predetermined position in a following N-1 consecutive frames of the first serial data stream match the sequence of N bits.