mhurhangee/ep-ind-claims huggingface dataset:
A PMT-deficient filamentous fungal cell comprising a) a first mutation in a gene encoding an endogenous protease that reduces or eliminates an endogenous protease activity compared to a parental filamentous fungal cell which does not have said first mutation, said endogenous proteases being selected among aspartic proteases, trypsin-like serine proteases, subtilisin proteases, glutamic proteases and sedolisin proteases, and b) a second mutation in a PMT gene that reduces endogenous O-mannosyltransferase activity compared to a parental filamentous fungal cell which does not have said second mutation, wherein said filamentous fungal cell is selected from the group consisting of Trichoderma, Neurospora, Myceliophthora and Chrysosporium cell. a) a first mutation in a gene encoding an endogenous protease that reduces or eliminates an endogenous protease activity compared to a parental filamentous fungal cell which does not have said first mutation, said endogenous proteases being selected among aspartic proteases, trypsin-like serine proteases, subtilisin proteases, glutamic proteases and sedolisin proteases, and b) a second mutation in a PMT gene that reduces endogenous O-mannosyltransferase activity compared to a parental filamentous fungal cell which does not have said second mutation,
Passive valve for a fuel injector comprising - a valve body extending along a longitudinal axis from a fluid inlet end to a fluid outlet end, having a fluid outlet opening at the fluid outlet end and having a cavity which hydraulically couples the fluid inlet end to the fluid outlet end, - a sealing element which seals the fluid outlet opening in a closing position and is axially displaceable away from the closing position for unsealing the fluid outlet opening, and - a spring element having a first axial end which is fixedly coupled to the valve body and a second axial end which is axially moveable relative to the valve body wherein - the passive valve further comprises an elongated connection member, separate from and fixed to the sealing element, the connection member bridging an axial gap between the second axial end of the spring element and the sealing element and mechanically coupling the second axial end of the spring element to the sealing element and the connection member transfers the spring force to the sealing element for biasing the sealing element in axial direction towards the closing position, wherein the passive valve is an outward opening valve, characterized in that the spring element is a tension spring and is preloaded by expansion so that it exerts a spring force on the connection member and in that the spring element and the connection member are integrally formed as a one-pieced part, in particular from one piece of spring wire. - a valve body extending along a longitudinal axis from a fluid inlet end to a fluid outlet end, having a fluid outlet opening at the fluid outlet end and having a cavity which hydraulically couples the fluid inlet end to the fluid outlet end, - a sealing element which seals the fluid outlet opening in a closing position and is axially displaceable away from the closing position for unsealing the fluid outlet opening, and - a spring element having a first axial end which is fixedly coupled to the valve body and a second axial end which is axially moveable relative to the valve body wherein - the passive valve further comprises an elongated connection member, separate from and fixed to the sealing element, the connection member bridging an axial gap between the second axial end of the spring element and the sealing element and mechanically coupling the second axial end of the spring element to the sealing element and the connection member transfers the spring force to the sealing element for biasing the sealing element in axial direction towards the closing position, wherein the passive valve is an outward opening valve, characterized in that the spring element is a tension spring and is preloaded by expansion so that it exerts a spring force on the connection member and in that the spring element and the connection member are integrally formed as a one-pieced part, in particular from one piece of spring wire.
A block copolymer comprising a vinyl aromatic hydrocarbon and a conjugated diene, wherein the relation of the loss tangent value obtained by dynamic viscoelasticity measurement, as measured and established as described in the description, to the temperature satisfies the following conditions: there is at least one peak value within a temperature range of from 65 to 100°C, the value of loss tangent at a temperature lower by 10°C than the temperature for the peak value is at most 40% of the peak value, and the value of loss tangent at a temperature lower by 30°C than the temperature for the peak value is at most 10% of the peak value, and wherein the molecular structure is represented by the following formula, its weight average molecular weight is from 100,000 to 300,000, and the following conditions (a) to (c) are satisfied: X-(Y-X)n wherein n is an integer of at least 1: (a) X is a block having a chain comprising one type or at least two types of vinyl aromatic hydrocarbons, (b) Y is a block containing at least one random copolymer segment of a conjugated diene and a vinyl aromatic hydrocarbon, each being of one type or at least two types, having a weight average molecular weight of from 40,000 to 250,000, and (c) when a molecular weight distribution of a polymer mixture comprising a vinyl aromatic hydrocarbon obtained by ozonolysis treatment as described in the description of the block copolymer is measured, the relation between the weight average molecular weight (M w') of the polymer component showing the highest peak and the weight average molecular weight (M w) of the block copolymer before the treatment is 0.1 ≤ M w' /M w ≤ 0.4. there is at least one peak value within a temperature range of from 65 to 100°C, the value of loss tangent at a temperature lower by 10°C than the temperature for the peak value is at most 40% of the peak value, and the value of loss tangent at a temperature lower by 30°C than the temperature for the peak value is at most 10% of the peak value, (a) X is a block having a chain comprising one type or at least two types of vinyl aromatic hydrocarbons, (b) Y is a block containing at least one random copolymer segment of a conjugated diene and a vinyl aromatic hydrocarbon, each being of one type or at least two types, having a weight average molecular weight of from 40,000 to 250,000, and (c) when a molecular weight distribution of a polymer mixture comprising a vinyl aromatic hydrocarbon obtained by ozonolysis treatment as described in the description of the block copolymer is measured, the relation between the weight average molecular weight (M w') of the polymer component showing the highest peak and the weight average molecular weight (M w) of the block copolymer before the treatment is 0.1 ≤ M w' /M w ≤ 0.4.
An optical combiner comprising: a plurality of first input optical fibers each including a core; a bridge fiber having a bridge input surface including a single core connected to the cores of the plurality of first input optical fibers, a diameter reduction portion having a diameter gradually reduced away from the bridge input surface along an optical axis, and a bridge output surface located opposite to the bridge input surface along the optical axis; an intermediate optical fiber including a core connected to the bridge output surface of the bridge fiber; at least one second input optical fiber including a core; and an output optical fiber including a first optical waveguide connected to the core of the intermediate optical fiber and a second optical waveguide connected to the core of the at least one second input optical fiber. a plurality of first input optical fibers each including a core; a bridge fiber having a bridge input surface including a single core connected to the cores of the plurality of first input optical fibers, a diameter reduction portion having a diameter gradually reduced away from the bridge input surface along an optical axis, and a bridge output surface located opposite to the bridge input surface along the optical axis; an intermediate optical fiber including a core connected to the bridge output surface of the bridge fiber; at least one second input optical fiber including a core; and an output optical fiber including a first optical waveguide connected to the core of the intermediate optical fiber and a second optical waveguide connected to the core of the at least one second input optical fiber.
Method for determining a pressure ratio (p Rel) between a target tyre pressure (p Ideal) and a current tyre pressure (p Curr) for a tyre of a vehicle, comprising the steps of: determining a wheel load (f) which acts on the tyre, acquiring a dynamic tyre radius (r dyn) of the tyre and determining the pressure ratio (p Rel) in accordance with the wheel load (f) and the dynamic tyre radius (r dyn).
A method for obtaining 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol of formula from a mixture containing the compound of formula and 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-4-yl)propan-2-ol of formula (I-sym) which method comprises (a) providing a mixture containing the compounds of formulae and (I-sym) in at least one aromatic solvent, where the mixture contains the compound of formula in a concentration of from 30 to 90% by weight, relative to the total weight of the mixture; (b) adding to the mixture of step (a) at least one polar aprotic solvent, so that it is contained in an amount of from 1 to 25% by weight, relative to the weight of the solution obtained after the addition of the at least one polar aprotic solvent selected from N,N-dimethylformamide, N,N-dimethylacetamide, dimethylsulfoxide and N-methylpyrrolidone; and (c) crystallizing the compound of formula from the mixture obtained in step (b). (a) providing a mixture containing the compounds of formulae and (I-sym) in at least one aromatic solvent, where the mixture contains the compound of formula in a concentration of from 30 to 90% by weight, relative to the total weight of the mixture; (b) adding to the mixture of step (a) at least one polar aprotic solvent, so that it is contained in an amount of from 1 to 25% by weight, relative to the weight of the solution obtained after the addition of the at least one polar aprotic solvent selected from N,N-dimethylformamide, N,N-dimethylacetamide, dimethylsulfoxide and N-methylpyrrolidone; and (c) crystallizing the compound of formula from the mixture obtained in step (b).
Electrical insulation system with improved electrical breakdown strength, said electrical insulation system comprising a hardened polymer component (a) having incorporated therein a first filler material (b) and second filler material being a selected nano-scale sized filler material (c), characterized in that (a) said hardened polymer component is selected from epoxy resin compositions, polyesters, polyamides, polybutylene terephthalate, polyurethanes and polydicyclopentadiene; (b) said first filler material is a filler material having an average grain size distribution within the range of 1 μm-500 μm, being present in a quantity within the range of 40%-65% by weight, calculated to the total weight of the insulator system; and (c) said nano-scale sized filler material is selected from the group comprising silica, zinc oxide, alumina, aluminum trihydrate, layered silicates, titanium dioxide, metal nitrides and metal carbides, wherein said nano-scale sized filler material is a pretreated nano-scale material, having been produced by a sol-gel process; wherein said nano-scale sized filler material is present within the electrical insulation system in an amount of 1%-20% by weight, calculated to the weight of the first filler material present in the electrical insulator system. (a) said hardened polymer component is selected from epoxy resin compositions, polyesters, polyamides, polybutylene terephthalate, polyurethanes and polydicyclopentadiene; (b) said first filler material is a filler material having an average grain size distribution within the range of 1 μm-500 μm, being present in a quantity within the range of 40%-65% by weight, calculated to the total weight of the insulator system; and (c) said nano-scale sized filler material is selected from the group comprising silica, zinc oxide, alumina, aluminum trihydrate, layered silicates, titanium dioxide, metal nitrides and metal carbides, wherein said nano-scale sized filler material is a pretreated nano-scale material, having been produced by a sol-gel process; wherein said nano-scale sized filler material is present within the electrical insulation system in an amount of 1%-20% by weight, calculated to the weight of the first filler material present in the electrical insulator system.
An electromagnetic relay, comprising: a movable terminal including a movable contact; a fixed terminal including a fixed contact that faces the movable contact, characterised in that it further comprises: two separate first irons (75a, 75b) disposed apart from each other on one of the fixed terminal and the movable terminal; and a second iron disposed on another one of the fixed terminal and the movable terminal such that the second iron faces the first irons (75a, 75b) in a first direction, wherein in plan view seen from the first direction, the second iron partially overlaps both of the first irons (75a, 75b). a movable terminal including a movable contact; a fixed terminal including a fixed contact that faces the movable contact, characterised in that it further comprises: two separate first irons (75a, 75b) disposed apart from each other on one of the fixed terminal and the movable terminal; and a second iron disposed on another one of the fixed terminal and the movable terminal such that the second iron faces the first irons (75a, 75b) in a first direction, wherein two separate first irons (75a, 75b) disposed apart from each other on one of the fixed terminal and the movable terminal; and a second iron disposed on another one of the fixed terminal and the movable terminal such that the second iron faces the first irons (75a, 75b) in a first direction, wherein in plan view seen from the first direction, the second iron partially overlaps both of the first irons (75a, 75b).
Workstation of a textile machine producing cross-wound bobbins comprising a contact roller and a suction nozzle, to which negative pressure is applied and which is pivotably mounted, comprising a suction opening at the suction nozzle head, which is positioned for receiving a thread end that has run onto the cross-wound bobbin in the region of the surface of the cross-wound bobbin mounted rotatably in a bobbin frame, characterised in that a shielding device (19A, 19B, 19C) is provided which is arranged in the operating position of the suction nozzle between the suction opening of the suction nozzle and the contact roller for preventing the inflow of air along the lower side of the suction nozzle towards the suction opening subject to suction.
A rubber composition, comprising: a rubber component; one or more types of carbon black; and silica, at least one of the one or more types of carbon black being produced from a feedstock oil that has a BMCI value of 150 or less and an aliphatic hydrocarbon content of 30% by mass or more, the BMCI value being calculated from an average boiling point T (°C) and a specific gravity D (60/60°F) relative to water at 60°F according to the equation below, the silica having a nitrogen adsorption specific surface area of 40 to 400 m 2 /g, the rubber composition comprising the silica in an amount of 1 to 120 parts by mass relative to 100 parts by mass of the rubber component, BMCI = 48,640 / T + 273 + 473.7 D − 456.8. a rubber component; one or more types of carbon black; and silica, at least one of the one or more types of carbon black being produced from a feedstock oil that has a BMCI value of 150 or less and an aliphatic hydrocarbon content of 30% by mass or more, the BMCI value being calculated from an average boiling point T (°C) and a specific gravity D (60/60°F) relative to water at 60°F according to the equation below, the silica having a nitrogen adsorption specific surface area of 40 to 400 m 2 /g, the rubber composition comprising the silica in an amount of 1 to 120 parts by mass relative to 100 parts by mass of the rubber component, BMCI = 48,640 / T + 273 + 473.7 D − 456.8.
Shading and/or privacy screening device, particularly an awning, having a winding shaft for winding a flat shading element into a wound-up roll, particularly of an awning material, which can be unwound from the winding shaft, the winding shaft being movable back and forth in the direction of unwinding, and the shading and/or privacy screening device comprising a support device (30, 50) which supports the wound-up roll, characterised in that the support device (30, 50) comprises a support surface (29, 51) with at least one friction-reducing insert (54, 291) and/or overlay, the insert(s) (54, 291) and/or overlay(s) being located in interlocking engagement in corresponding recesses in the support surface (29, 51).
An isolated monoclonal antibody that binds to an epitope of human tissue factor pathway inhibitor (SEQ ID NO: 1), wherein said epitope comprises one or more residues of Kunitz domain 1, selected from the group consisting of Asp31, Asp32, Gly33, Pro34, Cys35, Lys36, Cys59, Glu60 and Asn62, and wherein said epitope comprises one or more residues of Kunitz domain 2, selected from the group consisting of Glu100, Glu101, Pro103, Gly104, Ile105, Cys106, Arg107, Gly108, Tyr109, Phe114, Asn116, Glu123, Arg124, Lys126, Tyr127 and Gly128 and wherein the isolated monoclonal antibody comprises a variable light chain (V L) of SEQ ID NO: 4 and a variable heavy chain (V H) of SEQ ID NO: 5.
A communication method, comprising: receiving, by a terminal, configuration information sent by a network device (eNB), wherein the configuration information is used to indicate a resource in a plurality of candidate resources of a common search space, and the candidate resources of the common search space are determined based on a cell identity; and receiving, by the terminal, common control information on the resource indicated by the configuration information, wherein a frequency domain resource start physical resource block, PRB, of the candidate resources of an m th common search space is calculated based on the following formula: k = k ̅ + ⌊ m − 1 ∗ N ss DL / M ⌋ ∗ N RB ss, where k is the frequency domain resource start PRB of the candidate resources of the m th common search space, M is a quantity of the candidate resources of the common search space, k ̅ = N RB ss / 2 ∗ n ID cell mod 2 ∗ N ss DL, N ss DL = N ̃ RB DL / N RB ss, N RB ss is a frequency domain bandwidth occupied by the common search space, N ̃ RB DL is a downlink bandwidth, and n ID cell is the cell identity. receiving, by a terminal, configuration information sent by a network device (eNB), wherein the configuration information is used to indicate a resource in a plurality of candidate resources of a common search space, and the candidate resources of the common search space are determined based on a cell identity; and receiving, by the terminal, common control information on the resource indicated by the configuration information,
An active cooling structure, comprising: a non-superconducting layer comprising a plurality of non-superconducting traces; a superconducting layer comprising a plurality of superconducting traces; wherein the plurality of non-superconducting traces run orthogonal to the plurality of superconducting traces; and an array of Superconductor-Insulator-Normal Metal tunnel junctions between the plurality of non-superconducting traces and the plurality of superconducting traces; wherein the array comprises a grid of NIS tunnel junctions. a non-superconducting layer comprising a plurality of non-superconducting traces; a superconducting layer comprising a plurality of superconducting traces; wherein the plurality of non-superconducting traces run orthogonal to the plurality of superconducting traces; and an array of Superconductor-Insulator-Normal Metal tunnel junctions between the plurality of non-superconducting traces and the plurality of superconducting traces; wherein the array comprises a grid of NIS tunnel junctions.
A system, comprising: a first network device configured to control an operation of an industrial automation device based on a setting of the device configuration file; and a second network device configured to directly communicatively couple to the first network device via a peer-to-peer, P-P, communication network for an industrial automation system, wherein the second network device comprises a backup device configuration file that corresponds to the device configuration file, wherein the second network device is configured to transmit the backup device configuration file to the first network device in response to detecting that the first network device is lacking the device configuration file, wherein the P-P communication network is configured to couple the first network device and the second network device via a sub-network, subnet, and wherein the device configuration file defines a data endpoint associated with the subnet, wherein the first network device is configured to perform an operation within the industrial automation system in response to a setting defined by the backup configuration file. a first network device configured to control an operation of an industrial automation device based on a setting of the device configuration file; and a second network device configured to directly communicatively couple to the first network device via a peer-to-peer, P-P, communication network for an industrial automation system, wherein the second network device comprises a backup device configuration file that corresponds to the device configuration file, wherein the second network device is configured to transmit the backup device configuration file to the first network device in response to detecting that the first network device is lacking the device configuration file, wherein the P-P communication network is configured to couple the first network device and the second network device via a sub-network, subnet, and wherein the device configuration file defines a data endpoint associated with the subnet, wherein the second network device comprises a backup device configuration file that corresponds to the device configuration file, wherein the second network device is configured to transmit the backup device configuration file to the first network device in response to detecting that the first network device is lacking the device configuration file, wherein the P-P communication network is configured to couple the first network device and the second network device via a sub-network, subnet, and wherein the device configuration file defines a data endpoint associated with the subnet,