mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for cooling channels in an electrode column assembly of an electric arc furnace, the lower part of which electrode column assembly being provided with an electrode lower column assembly comprising - a contact shoe ring formed of a plurality of contact shoe elements connected to each other in an annular form and placed in contact with the electrode to conduct electric current to the electrode, - a pressure ring formed of a plurality of pressure blocks connected to each other to form an annular ring surrounding the contact shoe ring, the pressure blocks of said pressure ring being provided with hydraulic bellows by which the contact shoe ring is pressed against the steel mantle of the electrode, and - a heat shield located above the pressure ring in the axial direction of the electrode column assembly, said heat shield comprising a plurality of heat shield segments connected to each other to form an annular ring surrounding the lower electrode column assembly, - whereby the contact shoe elements and the pressure blocks are provided with channels (35, 36; 45, 46) through which a cooling liquid is made to flow for cooling of the contact shoe ring and the pressure ring, - wherein the channels (35, 36; 45, 46) made in the material of the contact shoe elements and the pressure blocks extend obliquely downwards from the upper ends (33, 43) of the contact shoe elements and the pressure blocks near to the lower ends (34, 44) of the same, characterized in that at least two of said oblique channels (35, 36; 45, 46) in a same contact shoe element and pressure block join together at their lower ends near the lower ends (34, 44) of the contact shoe elements and the pressure blocks to form a continuous channel (35, 36; 45, 46) in each contact shoe element and pressure block. - a contact shoe ring formed of a plurality of contact shoe elements connected to each other in an annular form and placed in contact with the electrode to conduct electric current to the electrode, - a pressure ring formed of a plurality of pressure blocks connected to each other to form an annular ring surrounding the contact shoe ring, the pressure blocks of said pressure ring being provided with hydraulic bellows by which the contact shoe ring is pressed against the steel mantle of the electrode, and - a heat shield located above the pressure ring in the axial direction of the electrode column assembly, said heat shield comprising a plurality of heat shield segments connected to each other to form an annular ring surrounding the lower electrode column assembly, - whereby the contact shoe elements and the pressure blocks are provided with channels (35, 36; 45, 46) through which a cooling liquid is made to flow for cooling of the contact shoe ring and the pressure ring, - wherein the channels (35, 36; 45, 46) made in the material of the contact shoe elements and the pressure blocks extend obliquely downwards from the upper ends (33, 43) of the contact shoe elements and the pressure blocks near to the lower ends (34, 44) of the same,
Accumulator arrangement for use in a cooling system suitable for operation with a two-phase refrigerant, the accumulator arrangement comprising: - a condenser having a refrigerant inlet and a refrigerant outlet, - an accumulator for receiving the two-phase refrigerant therein, the accumulator having a refrigerant inlet connected to the refrigerant outlet of the condenser and a refrigerant outlet, and - a sub-cooler having a refrigerant inlet and a refrigerant outlet, the sub-cooler being arranged at least partially within the interior of the accumulator, characterized by - a tubing connecting the refrigerant outlet of the accumulator to a conveying device for discharging refrigerant from the accumulator, wherein the refrigerant outlet of the accumulator is disposed in the region of a sump of the accumulator, wherein the refrigerant inlet of the sub-cooler is connected to the refrigerant outlet of the accumulator, and wherein the tubing extends from the sump of the accumulator through the interior of the accumulator in the direction of a head of the accumulator thereby passing through the sub-cooler. - a condenser having a refrigerant inlet and a refrigerant outlet, - an accumulator for receiving the two-phase refrigerant therein, the accumulator having a refrigerant inlet connected to the refrigerant outlet of the condenser and a refrigerant outlet, and - a sub-cooler having a refrigerant inlet and a refrigerant outlet, the sub-cooler being arranged at least partially within the interior of the accumulator, - a tubing connecting the refrigerant outlet of the accumulator to a conveying device for discharging refrigerant from the accumulator,
Method for cold stamping on a three-dimensional article, wherein the article is either rotatable about a rotation axis or is held fixed in place by a holding device, wherein, in a first step, an adhesive is applied onto the article at a first workstation and wherein, in a second step, a transfer film having a decorative layer and a carrier film is pressed by a pressing device onto the article at a second workstation, and the adhesive is simultaneously hardened, wherein the adhesive is a UV-adhesive, and wherein the hardening of the adhesive takes place by means of irradiation with UV-radiation.
A method for production of a viral hemagglutinin protein, comprising: providing a recombinant microalgal cell comprising a nucleic acid molecule comprising a polynucleotide sequence that encodes the viral HA protein comprising an HA membrane domain; culturing the recombinant microalgal cell in a medium such that the HA protein is secreted into the medium; and recovering the secreted recombinant viral HA protein from the medium. providing a recombinant microalgal cell comprising a nucleic acid molecule comprising a polynucleotide sequence that encodes the viral HA protein comprising an HA membrane domain; culturing the recombinant microalgal cell in a medium such that the HA protein is secreted into the medium; and recovering the secreted recombinant viral HA protein from the medium.
A method, performed by a user equipment (115, 206, 650, 802) for communicating a scheduling request, SR, in a wireless network, comprising: communicating with a network entity (105, 204, 610, 804) using a frame structure (700, 750) that allows dynamic switching of transmission time intervals, TTI, between uplink and downlink communications; selecting at least one SR mode for SR transmission to the network entity (105, 204, 610, 804) in one or more of the TTIs configured for uplink communications based on the frame structure (700, 750); transmitting a SR to the network entity (105, 204, 610, 804) in at least one uplink TTI of the one or more TTIs configured for uplink communications based at least in part on the at least one SR mode, characterized by the SR corresponding to one of a plurality of component carriers established with the network entity (105, 204, 610, 804); and by transmitting another SR to the network entity (105, 204, 610, 804) related to another one of the plurality of component carriers that utilizes another TTI that is of a longer duration than the TTIs. communicating with a network entity (105, 204, 610, 804) using a frame structure (700, 750) that allows dynamic switching of transmission time intervals, TTI, between uplink and downlink communications; selecting at least one SR mode for SR transmission to the network entity (105, 204, 610, 804) in one or more of the TTIs configured for uplink communications based on the frame structure (700, 750); transmitting a SR to the network entity (105, 204, 610, 804) in at least one uplink TTI of the one or more TTIs configured for uplink communications based at least in part on the at least one SR mode, characterized by the SR corresponding to one of a plurality of component carriers established with the network entity (105, 204, 610, 804); and by transmitting another SR to the network entity (105, 204, 610, 804) related to another one of the plurality of component carriers that utilizes another TTI that is of a longer duration than the TTIs.
Housing for a domestic appliance, with a layer of insulating material enclosed between a fixed outer skin and a fixed inner skin and a pressure equalisation valve, which is accommodated within a tube passing through the one insulation material layer and tightly sealed against the outer and inner skin, wherein the tube comprises two interpenetrating sleeves (10, 15), of which one is attached firmly to the outer skin and other firmly to the inner skin, characterised in that an outer of the two sleeves (10, 15) has a conically widened-out entry section into the insulation material layer, into which the inner sleeve is pushed.
A flexible insulation material comprising a flexible porous medium comprising fibres and defining a pore volume, and a phase change material within the pore volume wherein the phase change material fills in the range of from 40 to 95% of the pore volume, and a remaining part of the pore volume comprises air.
A lubricating oil composition comprising: (d) a major amount of a lubricating oil, (e) a diarylamine antioxidant, and (f) 0.01 to 10 wt.% of an amidine compound of Formula, wherein R 1 is hydrogen, an alkyl or an aromatic group containing 1-30 carbon atoms; x is from 1 to 5; Y is an optional linking alkyl group; Z is carbon or nitrogen; and R 2 is hydrogen or alkyl groups containing 1-30 carbon atoms, wherein the concentration of the diarylamine antioxidant in the lubricating oil composition is 0.01 to 10 wt. %. (d) a major amount of a lubricating oil, (e) a diarylamine antioxidant, and (f) 0.01 to 10 wt.% of an amidine compound of Formula, wherein R 1 is hydrogen, an alkyl or an aromatic group containing 1-30 carbon atoms; x is from 1 to 5; Y is an optional linking alkyl group; Z is carbon or nitrogen; and R 2 is hydrogen or alkyl groups containing 1-30 carbon atoms, wherein the concentration of the diarylamine antioxidant in the lubricating oil composition is 0.01 to 10 wt. %.
A PTC liquid heating device (100, 200, 300, 400, 500, 600, 700) comprising: a housing (104, 204, 304, 404, 504, 604, 704) extending along a longitudinal axis and defining a liquid inlet (136, 236, 336, 436, 536, 636, 736) and a liquid outlet (138, 238, 338, 438, 538, 638, 738); and a PTC heating unit inserted into said housing and extending along said longitudinal axis; wherein said PTC heating unit includes a PTC ceramic sheet, a pair of electrodes, a first insulating layer, and a first sleeve; wherein said PTC ceramic sheet is located between said pair of electrodes; wherein said first insulating layer extends about said pair of electrodes and said PTC ceramic sheet, and said first sleeve extends about said first insulating layer; and characterized in that each electrode of said pair of electrodes has a shape matching with a shape of said first sleeve, the PTC liquid heating device further including: a second sleeve, located adjacent to said first sleeve and extending about said first sleeve; and a second insulating layer located between said first sleeve and said second sleeve, said second insulating layer extending about said first sleeve. a housing (104, 204, 304, 404, 504, 604, 704) extending along a longitudinal axis and defining a liquid inlet (136, 236, 336, 436, 536, 636, 736) and a liquid outlet (138, 238, 338, 438, 538, 638, 738); and a PTC heating unit inserted into said housing and extending along said longitudinal axis; wherein said PTC heating unit includes a PTC ceramic sheet, a pair of electrodes, a first insulating layer, and a first sleeve; wherein said PTC ceramic sheet is located between said pair of electrodes; wherein said first insulating layer extends about said pair of electrodes and said PTC ceramic sheet, and said first sleeve extends about said first insulating layer; and characterized in that each electrode of said pair of electrodes has a shape matching with a shape of said first sleeve, the PTC liquid heating device further including: a second sleeve, located adjacent to said first sleeve and extending about said first sleeve; and a second insulating layer located between said first sleeve and said second sleeve, said second insulating layer extending about said first sleeve.
A stirring impeller, comprising - a hub disc comprising a shaft attachment structure arranged centrally in the hub for receiving a shaft centrally and perpendicularly from an upper side of the hub disc, - a plurality of upper blades arranged on the upper side of the hub disc, - a plurality of lower blades arranged on a lower side of the hub disc, - wherein at least one of said plurality of upper blades is arranged to have jet angle (Ju) of 5° - 45°, characterized in that - the lower blades have a jet angle (Jl) that is different than said jet angle (Ju) of at least one of said plurality of upper blades. - a hub disc comprising a shaft attachment structure arranged centrally in the hub for receiving a shaft centrally and perpendicularly from an upper side of the hub disc, - a plurality of upper blades arranged on the upper side of the hub disc, - a plurality of lower blades arranged on a lower side of the hub disc, - wherein at least one of said plurality of upper blades is arranged to have jet angle (Ju) of 5° - 45°, characterized in that - the lower blades have a jet angle (Jl) that is different than said jet angle (Ju) of at least one of said plurality of upper blades.
An inkjet ink composition, comprising: a water-soluble polymer which comprises at least one selected from the group consisting of polyethylene glycol and a copolymer of ethylene glycol and propylene glycol that has a number average molecular weight, measured by gel permeation chromatography of 1,000 or more; particles that have a polymerizable group; a colorant; and water, a ratio of a content of the particles to a content of the water-soluble polymer in terms of mass being from 0.6 to 3.5, and a viscosity measured at a relative humidity of 50% using a vibration type viscometer and a cone plate (35 mm in diameter) of the inkjet ink composition at 30°C being from 10 mPa·s to 14 mPa·s. a water-soluble polymer which comprises at least one selected from the group consisting of polyethylene glycol and a copolymer of ethylene glycol and propylene glycol that has a number average molecular weight, measured by gel permeation chromatography of 1,000 or more; particles that have a polymerizable group; a colorant; and water, a ratio of a content of the particles to a content of the water-soluble polymer in terms of mass being from 0.6 to 3.5, and a viscosity measured at a relative humidity of 50% using a vibration type viscometer and a cone plate (35 mm in diameter) of the inkjet ink composition at 30°C being from 10 mPa·s to 14 mPa·s.
An interconnection network for providing data transfer between a plurality of nodes of an integrated circuit, comprising: a plurality of endpoints (46, 48) each configured to exchange data with a respective node of the integrated circuit, the plurality of endpoints comprising a source endpoint and a destination endpoint; a primary network configured to route a primary payload from the source endpoint to the destination endpoint; a redundant network configured to route, to the destination endpoint, a redundant payload comprising a first check code calculated based on at least a portion of the primary payload, the first check code having fewer bits than said at least a portion of the primary payload; wherein the destination endpoint comprises error checking circuitry to perform an error checking operation to calculate a second check code based on the primary payload received via the primary network, and verify integrity of the primary payload based on a comparison of the second check code with the first check code received via the redundant network. a plurality of endpoints (46, 48) each configured to exchange data with a respective node of the integrated circuit, the plurality of endpoints comprising a source endpoint and a destination endpoint; a primary network configured to route a primary payload from the source endpoint to the destination endpoint; a redundant network configured to route, to the destination endpoint, a redundant payload comprising a first check code calculated based on at least a portion of the primary payload, the first check code having fewer bits than said at least a portion of the primary payload; wherein the destination endpoint comprises error checking circuitry to perform an error checking operation to calculate a second check code based on the primary payload received via the primary network, and verify integrity of the primary payload based on a comparison of the second check code with the first check code received via the redundant network.
A system for transporting an equipment, in particular a railway rail (RN, RU), the transporting system comprising: - at least one structural beam adapted to support an equipment, said structural beam including a longitudinal body comprising a first connection end and a second connection end and joining means adapted to be joined to said equipment, and - at least one first movable unit and a second movable unit which are independent, each movable unit (2, 2') including a chassis (20, 20') and at least one connection member (5, 5'), movably mounted with respect to said chassis (20, 20'), the connection member of the first movable unit (2, 2') and the connection member of the second movable unit being adapted to be respectively connected to the first connection end and to the second connection end of the structural beam in order to support it, each movable unit (2, 2') further comprising road moving means (3, 3') able to enable said chassis (20, 20') to be moved on a road or the like, which system is characterised in that each connection member (5, 5') is in the form of a connection ring the aperture of which is adapted to cooperate with a substantially spherical shaped connection end (11, 12) of the structural beam. - at least one structural beam adapted to support an equipment, said structural beam including a longitudinal body comprising a first connection end and a second connection end and joining means adapted to be joined to said equipment, and - at least one first movable unit and a second movable unit which are independent, each movable unit (2, 2') including a chassis (20, 20') and at least one connection member (5, 5'), movably mounted with respect to said chassis (20, 20'), the connection member of the first movable unit (2, 2') and the connection member of the second movable unit being adapted to be respectively connected to the first connection end and to the second connection end of the structural beam in order to support it, each movable unit (2, 2') further comprising road moving means (3, 3') able to enable said chassis (20, 20') to be moved on a road or the like, which system is characterised in that each connection member (5, 5') is in the form of a connection ring the aperture of which is adapted to cooperate with a substantially spherical shaped connection end (11, 12) of the structural beam.
An electric resistance welded steel pipe or tube comprising: a base metal being a steel sheet having a chemical composition consisting of, in mass%, C: 0.15 % to 0.40 %, Si: 0.05 % to 0.50 %, Mn: 0.30 % to 2.00 %, Al: 0.01 % to 0.10 %, Ti: 0.001 % to 0.04 %, B: 0.0005 % to 0.0050 %, N: 0.0010 % to 0.0100 %, and optionally, in mass%, one or more selected from the group consisting of Cr: 1.0 % or less, Mo: 1.0 % or less, W: 1.0 % or less, Ni: 1.0 % or less, Cu: 1.0 % or less, Nb: 0.2 % or less, V: 0.2 % or less, and Ca: 0.0050 % or less, with a balance consisting of Fe and inevitable impurities, wherein P is 0.020% or less, S is 0.010% or less and O is 0.005% or less, a Ti content and a N content satisfying the following Formula, N/14 < Ti/47.9 where N is the N content in mass% and Ti is the Ti content in mass%, and an electric resistance weld portion having a bond width of 40 × 10 -6 m or more and 120 × 10 -6 m or less, measured by the method as of description, wherein C 0 - C 1 is 0.05 mass% or less, measured by the method as of description, where C 0 - C 1 is a difference between C 1 in mass% which is a minimum C content of the electric resistance weld portion and C 0 in mass% which is a C content of the steel sheet, and a depth of a total decarburized layer in each of an inner surface layer and an outer surface layer of the electric resistance welded steel pipe or tube, measured by the method as of description, is 50 × 10 -6 m or less. a base metal being a steel sheet having a chemical composition consisting of, in mass%, C: 0.15 % to 0.40 %, Si: 0.05 % to 0.50 %, Mn: 0.30 % to 2.00 %, Al: 0.01 % to 0.10 %, Ti: 0.001 % to 0.04 %, B: 0.0005 % to 0.0050 %, N: 0.0010 % to 0.0100 %, and Cr: 1.0 % or less, Mo: 1.0 % or less, W: 1.0 % or less, Ni: 1.0 % or less, Cu: 1.0 % or less, Nb: 0.2 % or less, V: 0.2 % or less, and Ca: 0.0050 % or less, with a balance consisting of Fe and inevitable impurities, wherein P is 0.020% or less, S is 0.010% or less and O is 0.005% or less, a Ti content and a N content satisfying the following Formula, N/14 < Ti/47.9 where N is the N content in mass% and Ti is the Ti content in mass%, and an electric resistance weld portion having a bond width of 40 × 10 -6 m or more and 120 × 10 -6 m or less, measured by the method as of description, wherein C 0 - C 1 is 0.05 mass% or less, measured by the method as of description, where C 0 - C 1 is a difference between C 1 in mass% which is a minimum C content of the electric resistance weld portion and C 0 in mass% which is a C content of the steel sheet, and a depth of a total decarburized layer in each of an inner surface layer and an outer surface layer of the electric resistance welded steel pipe or tube, measured by the method as of description, is 50 × 10 -6 m or less.
Method for adapting a riserless workover system configuration into an open water riser workover system configuration, wherein the system comprising an emergency disconnect package arranged between a lubricator section and well control package, the lubricator section comprises a wireline shear seal valve assembly, the system further comprises an emergency disconnect package connector for disconnecting the emergency disconnect package from the well control package in case of emergency, characterized in that the method comprising the steps of - relocate the wireline shear seal valve assembly by rotating the valve assembly upside down prior to attaching a riser assembly to the configured open water riser workover system, and - connecting at least one accumulator arrangement to the configured open water riser workover system. - relocate the wireline shear seal valve assembly by rotating the valve assembly upside down prior to attaching a riser assembly to the configured open water riser workover system, and - connecting at least one accumulator arrangement to the configured open water riser workover system.