mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a conjugated diene-based polymer, the method comprising: preparing a conjugated diene-based polymer by initiating and carrying out polymerization while continuously adding conjugated diene-based monomers to a reactor, wherein an emulsifier is dividedly added before the initiation of the polymerization and when a polymerization conversion rate of 31% to 80% is reached. preparing a conjugated diene-based polymer by initiating and carrying out polymerization while continuously adding conjugated diene-based monomers to a reactor, wherein an emulsifier is dividedly added before the initiation of the polymerization and when a polymerization conversion rate of 31% to 80% is reached.
High strength hot dip galvanised steel strip consisting, in mass percent, of the following elements: 0.10 - 0.18 % C 1.95 - 2.40 % Mn 0.30 - 0.50 % Si 0.50 - 0.70 % Al 0.10 - 0.50 % Cr 0.001 - 0.10 % P 0.01 - 0.05 % Nb max 0.004 % Ca max 0.05 % S max 0.007 % N and optionally at least one of the following elements: 0.005 - 0.50 % Ti 0.005 - 0.50 % V 0.005 - 0.50 % Mo 0.005 - 0.50 % Ni 0.005 - 0.50 % Cu max 0.005 % B the balance being Fe and inevitable impurities, wherein 0.80 % < Al + Si < 1.05 % and Mn + Cr > 2.10 %. 0.10 - 0.18 % C 1.95 - 2.40 % Mn 0.30 - 0.50 % Si 0.50 - 0.70 % Al 0.10 - 0.50 % Cr 0.001 - 0.10 % P 0.01 - 0.05 % Nb max 0.004 % Ca max 0.05 % S max 0.007 % N 0.005 - 0.50 % Ti 0.005 - 0.50 % V 0.005 - 0.50 % Mo 0.005 - 0.50 % Ni 0.005 - 0.50 % Cu max 0.005 % B
Method for manufacturing a three-dimensional composite object (21a, 21b, 21c), especially a sports article, comprising the steps: a. providing a rotatable casting mold; b. filling of a first material into the casting mold; c. filling of a second material into the casting mold, wherein at least one of the materials (14, 15) is a polymer material; d. placing at least one element in the casting mold, wherein the element is a multilayered panel, an electronic component, a film, a textile, or a stiffening element; e. moving of the casting mold; f. heating and/or a cooling of at least one of the filled materials (14, 15); and g. adapting of at least one process parameter during the performance of one or more of the preceding steps, so that a homogeneous distribution of the second material in the manufactured composite object (21a, 21b, 21c) is achieved, wherein the at least one process parameter is the rotation speed of the casting mold, the speed with which the casting mold is moved, the deflection of the casting mold in the case of a swivel movement, the heating time of at least one of the materials, the cooling time of at least one of the materials, the viscosity of at least one of the materials, the angle of the rotation axes of the casting mold, the ratio of the rotation speeds about the rotation axes of the casting mold, the holding times of the first and/or second material in the casting mold, the filling times of the first and/or second material, or combinations thereof. a. providing a rotatable casting mold; b. filling of a first material into the casting mold; c. filling of a second material into the casting mold, wherein at least one of the materials (14, 15) is a polymer material; d. placing at least one element in the casting mold, wherein the element is a multilayered panel, an electronic component, a film, a textile, or a stiffening element; e. moving of the casting mold; f. heating and/or a cooling of at least one of the filled materials (14, 15); and g. adapting of at least one process parameter during the performance of one or more of the preceding steps, so that a homogeneous distribution of the second material in the manufactured composite object (21a, 21b, 21c) is achieved, wherein the at least one process parameter is the rotation speed of the casting mold, the speed with which the casting mold is moved, the deflection of the casting mold in the case of a swivel movement, the heating time of at least one of the materials, the cooling time of at least one of the materials, the viscosity of at least one of the materials, the angle of the rotation axes of the casting mold, the ratio of the rotation speeds about the rotation axes of the casting mold, the holding times of the first and/or second material in the casting mold, the filling times of the first and/or second material, or combinations thereof.
A method for pressure and temperature let-down of a pressure oxidation autoclave discharge slurry, wherein the method comprises (a) receiving an autoclave discharge slurry from an autoclave to a first top-entry flash vessel; (b) obtaining a first flash steam and a first cooled slurry by allowing the autoclave discharge slurry to flash in the first top-entry flash vessel; (c) transferring the first cooled slurry from a bottom part of the first top-entry flash vessel to a top part of a second top-entry flash vessel; and (e) obtaining a second flash steam and a second cooled slurry by allowing the first cooled slurry to flash in the second top-entry flash vessel; characterized in that the method comprises (d) providing, simultaneously with the steps (b) and (c), autoclave vent gas obtained from the autoclave to the said first top-entry flash vessel for inducing overpressure to the first top-entry flash vessel and preventing boiling of the first cooled slurry during the transfer to the second top-entry flash vessel. (a) receiving an autoclave discharge slurry from an autoclave to a first top-entry flash vessel; (b) obtaining a first flash steam and a first cooled slurry by allowing the autoclave discharge slurry to flash in the first top-entry flash vessel; (c) transferring the first cooled slurry from a bottom part of the first top-entry flash vessel to a top part of a second top-entry flash vessel; and (e) obtaining a second flash steam and a second cooled slurry by allowing the first cooled slurry to flash in the second top-entry flash vessel;
Wind turbine comprising an assembly of a first component and a second component, wherein the first and second component are main components of the wind turbine, the assembly comprises, - a plurality of paired eccentric cam adjusters adapted for a connection of the first component and the second component, said first component has at least a first hole and said second component has at least a second hole, the paired eccentric cam adjusters comprising, - a first eccentric cam adjuster and a second eccentric cam adjuster both comprising, - a tube with an outer surface and an inner bore (103, 303), wherein a first central longitudinal axis of the outer surface having an offset from a second central longitudinal axis of the inner bore (103, 303) and a flange arranged at one end of the tube, - the first eccentric cam adjuster suitable for being inserted into the first hole and - the second eccentric cam adjuster suitable for being inserted into the second hole, and - a bolt and a nut suitable for being received in the inner bores (103, 303) to join the paired and aligned eccentric cam adjusters (7 and 8). - a plurality of paired eccentric cam adjusters adapted for a connection of the first component and the second component, said first component has at least a first hole and said second component has at least a second hole, the paired eccentric cam adjusters comprising, - a first eccentric cam adjuster and a second eccentric cam adjuster both comprising, - a tube with an outer surface and an inner bore (103, 303), wherein a first central longitudinal axis of the outer surface having an offset from a second central longitudinal axis of the inner bore (103, 303) and a flange arranged at one end of the tube, - the first eccentric cam adjuster suitable for being inserted into the first hole and - the second eccentric cam adjuster suitable for being inserted into the second hole, and - a bolt and a nut suitable for being received in the inner bores (103, 303) to join the paired and aligned eccentric cam adjusters (7 and 8). - a first eccentric cam adjuster and a second eccentric cam adjuster both comprising, - a tube with an outer surface and an inner bore (103, 303), wherein a first central longitudinal axis of the outer surface having an offset from a second central longitudinal axis of the inner bore (103, 303) and a flange arranged at one end of the tube, - the first eccentric cam adjuster suitable for being inserted into the first hole and - the second eccentric cam adjuster suitable for being inserted into the second hole, and - a bolt and a nut suitable for being received in the inner bores (103, 303) to join the paired and aligned eccentric cam adjusters (7 and 8).
A wet-running disc clutch comprising a plurality of inner discs and a plurality of outer discs arranged alternately in the axial direction, wherein each inner disc has an inner disc base body on which a first friction lining is arranged on both sides, and each outer disc has an outer disc base body, on which a second friction lining is arranged on both sides, and wherein the first friction linings are situated entirely below the second friction linings in the radial direction, so that the first friction linings come into frictional contact with the outer plate bodies when the disc clutch is closed, and the second friction linings come into frictional contact with the inner plate bodies when the disc clutch is closed, wherein the first friction linings each have first grooves with a groove depth of up to 100% of a friction lining thickness of the first friction linings and the second friction linings optionally have second grooves, characterized in that the second friction linings are configured annularly as closed rings with a lining thickness that is constant over the entire circumference, or that, in the case where the second friction linings have the second grooves, these second grooves have a smaller cross-sectional area, as viewed in the longitudinal direction of the second grooves, than the first grooves, as viewed in the same direction.
A wireless transmit/receive unit, WTRU, comprising: means for receiving a non-access stratum, NAS message, wherein the NAS message comprises a Long Term Evolution, LTE, evolved mobility management, EMM, NAS message or an LTE evolved session management, ESM, NAS message, and wherein the NAS message includes a NAS security state variable in a NAS PDU; means for deciphering the NAS message on a condition that NAS security is active, wherein NAS security is active for the NAS message on a condition that the NAS security state variable denotes that currently NAS security is active; and wherein the NAS security is not active for the NAS message on a condition that the NAS security state variable denotes that currently NAS security is not active. means for receiving a non-access stratum, NAS message, wherein the NAS message comprises a Long Term Evolution, LTE, evolved mobility management, EMM, NAS message or an LTE evolved session management, ESM, NAS message, and wherein the NAS message includes a NAS security state variable in a NAS PDU; means for deciphering the NAS message on a condition that NAS security is active, wherein NAS security is active for the NAS message on a condition that the NAS security state variable denotes that currently NAS security is active; and wherein the NAS security is not active for the NAS message on a condition that the NAS security state variable denotes that currently NAS security is not active.
A baseband pool device, characterized by comprising a control unit, and a plurality of baseband processing units (100, 200, 300, 400), wherein, every baseband processing unit comprises a dedicated baseband data switch module (102, 202, 302, 402) and a baseband data processing module (101, 201, 301, 401); any two of the plurality of baseband processing units (100, 200, 300, 400) are connected to form a mesh interconnection through dedicated baseband data switch modules (102, 202, 302, 402) of the plurality of baseband processing units; the control unit is configured to: determine one or more baseband processing units participating in data processing according to a size of data received by the baseband pool device and baseband data processing capabilities of every baseband processing unit, and allocate an identifier of the baseband data to be processed to every baseband processing unit participating in the data processing to construct a data allocation relationship, and respectively transmit the data allocation relationship to the baseband processing units participating in data processing; and the baseband processing units (100, 200, 300, 400) are configured to: receive the data allocation relationship; and, process the received data according to the data allocation relationship, or transmit the received data to other baseband processing units of the baseband pool device, or receive data processed and then forwarded by other baseband processing units; the dedicated baseband data switch module (102, 202, 302, 402) is configured to: receive data according to the data allocation relationship and transmit the received data to the baseband data processing module, or transmit the received data to dedicated baseband data switch modules of other baseband processing units, or receive data forwarded by the dedicated baseband data switch modules of other baseband processing units; the baseband data processing module (101, 201, 301, 401) is configured to: perform baseband processing on the data transmitted by the dedicated baseband data switch module, and return the processed data to the dedicated baseband data switch module; so as to implement baseband data distributed switch.
Method for welding metal sheets (3, 4) coated with a layer made from a material with a melting point lower than that of the material forming the metal sheet (3, 4) by a laser beam, at least one of the metal sheets (3, 4) being provided with bosses forming a thickened portion on the thus-embossed metal sheet, this method including an operation for assembling the metal sheets (3, 4), an operation for holding the metal sheets (3, 4) for degassing with a predetermined clearance therebetween, and an operation for welding the thus-held metal sheets (3, 4), the welding being performed at the line between the bosses, the weld lines alternating with the bosses, characterised in that the clearance for degassing is less than the thickened portion formed by the bosses, the operation for holding the metal sheets (3, 4) includes an operation for crushing the bosses until the thickened portion is made level with the clearance for degassing, and in that the crushing operation is conducted using a pressing jaw tool (7, 8), an upper jaw being applied against the embossed metal sheet at the level of a boss, and a lower jaw applied opposite, against the subjacent metal sheet, the upper jaw being dimensioned such that it covers the boss and rests against a non-embossed rim of the latter.
Airbag module with a first envelope enclosing a first gas space, a first inflator for filling the first gas space, at least one adaptive ventilation device for ventilation of the first gas space, which has at least one ventilation opening bordered by flexible material and at least one throttling device, which throttles the gas flow through the ventilation opening more strongly in a first state than in a second state, wherein the throttling device comprises a tear seam, a second envelope enclosing a second gas space and a gas source for filling the second gas space, wherein the tear seam extends through the second gas space and tears on filling of the second gas space by the gas source, so that the adaptive ventilation device transfers from a first, throttled state to a second, less throttled state, characterised by that the tear seam throttles the ventilation opening in the first state of the adaptive ventilation device at least due to the fact that it connects a first section of the border of the ventilation opening directly to a second section of the border of the ventilation opening and thus draws the border together at least in sections.
An apparatus comprising a grounding clip for an organic matrix composite gas turbine guide vane with a metallic sheath, the apparatus comprising said organic matrix composite guide vane, which comprises a body having a leading edge and a trailing edge opposite the leading edge and a root end extending between said leading edge and said trailing edge, the apparatus further comprising said metallic sheath, which is attached proximate said leading edge and extends to said root end, wherein the apparatus further comprises: a metallic attachment fitting having a receiver configured to receive said root end of said organic matrix composite guide vane for coupling said organic matrix composite guide vane to said metallic attachment fitting, wherein said grounding clip is coupled to said sheath proximate said root end, and said grounding clip is electrically connected to said metallic attachment fitting and said metallic sheath. a metallic attachment fitting having a receiver configured to receive said root end of said organic matrix composite guide vane for coupling said organic matrix composite guide vane to said metallic attachment fitting, wherein said grounding clip is coupled to said sheath proximate said root end, and said grounding clip is electrically connected to said metallic attachment fitting and said metallic sheath.
A derivative of formula: TiO 2 - -Ag + wherein: - - is a bivalent mercapto alkyl silane ligand of general formula: -[Si-R-S]-, wherein R is a bivalent C 1 -C 4 linear or branched alkyl group, optionally substituted; TiO 2 represent a titanium dioxide particle linked to the silica atom of the ligand - -; Ag + represents silver ions coordinated to the sulphur atom of the bivalent ligand - -. - - is a bivalent mercapto alkyl silane ligand of general formula: -[Si-R-S]-, wherein R is a bivalent C 1 -C 4 linear or branched alkyl group, optionally substituted; TiO 2 represent a titanium dioxide particle linked to the silica atom of the ligand - -; Ag + represents silver ions coordinated to the sulphur atom of the bivalent ligand - -.
Method for gold and silver extraction from low-grade refractory ores and concentrates, characterized by the fact that it leaches gold and silver in sodium thiosulfate solutions of 50-60 g/l Na 1 S 2 O 3 -5 H 2 O, alkalized with ammonium hydroxide at pH 8-10, with a bivalent copper salt of 3-4 g/l Cu as activator, at ambient temperature while stirring for a time of 2-3 hours.
A steel cord for reinforcement of rubber articles, having a multi-twisted structure in which a plurality of strands are twisted together, said strands having a layered twisted structure in which a plurality of steel filaments are twisted together, the steel cord having a cord structure (3 + 9 + 11) + 7 × (3 + 9), wherein the core strand has a layered twisted structure composed of: a core having 3 core filaments; a first sheath having 9 first sheath filaments sequentially arranged around the circumference of the core; and a second sheath having 11 second sheath filaments; is twisted together with 7 sheath strands having a layered twisted structure composed of: a core having 3 core filaments; and 9 first sheath filaments sequentially arranged around the circumference of the core, wherein dc/ds, which represents the ratio between dc, the diameter of each outermost layer sheath filament constituting the outermost layer sheath of a core strand, and ds, the diameter of each outermost layer sheath filament constituting the outermost layer sheath of sheath strands, is 1.05 to 1.25, wherein the twist angle of each sheath strand with respect to the cord axis of the sheath strand is 1.40-1.50 rad. a core having 3 core filaments; a first sheath having 9 first sheath filaments sequentially arranged around the circumference of the core; and a second sheath having 11 second sheath filaments; is twisted together with 7 sheath strands having a layered twisted structure composed of: a core having 3 core filaments; and 9 first sheath filaments sequentially arranged around the circumference of the core, a core having 3 core filaments; and 9 first sheath filaments sequentially arranged around the circumference of the core, wherein dc/ds, which represents the ratio between dc, the diameter of each outermost layer sheath filament constituting the outermost layer sheath of a core strand, and ds, the diameter of each outermost layer sheath filament constituting the outermost layer sheath of sheath strands, is 1.05 to 1.25, wherein the twist angle of each sheath strand with respect to the cord axis of the sheath strand is 1.40-1.50 rad.
A wound treatment device (10A, 10B, 10C, 10D), comprising: a housing (12B, 8C, 12D) for treatment of a limb of a patient by a gas supplied thereto, said housing defining a treatment chamber (14B, 18C) for exposing the limb of a patient to the treatment gas; a housing pressure sensor coupled to a controller for measuring the gas pressure within the treatment chamber; an inflatable cuff (22B, 45D) for sealing the housing against the limb of a patient; a cuff pressure sensor coupled to the controller for measuring the gas pressure within the cuff; and a controller for controlling the cuff gas pressure responsive to the gas pressure in the treatment chamber. a housing (12B, 8C, 12D) for treatment of a limb of a patient by a gas supplied thereto, said housing defining a treatment chamber (14B, 18C) for exposing the limb of a patient to the treatment gas; a housing pressure sensor coupled to a controller for measuring the gas pressure within the treatment chamber; an inflatable cuff (22B, 45D) for sealing the housing against the limb of a patient; a cuff pressure sensor coupled to the controller for measuring the gas pressure within the cuff; and a controller for controlling the cuff gas pressure responsive to the gas pressure in the treatment chamber.
A positive electrode for a non-aqueous electrolyte secondary battery, comprising: a positive electrode current collector comprising a positive electrode current collector main body formed of a metal material; a positive electrode active material layer provided on the positive electrode current collector, wherein the positive electrode active material layer comprises positive electrode active material particles having, on at least a part of their surfaces, a coated section comprising a conductive carbon, the positive electrode active material layer has a conductive carbon content of 0.5 to 3.0 % by mass, based on a total mass of the positive electrode active material layer, the positive electrode active material layer has a pore specific surface area of 5.0 to 10.0 m 2 /g and a central pore diameter of 0.06 to 0.15 μm, wherein the pore specific surface area and the central pore diameter of the positive electrode active material layer are values measured by the mercury intrusion method utilizing the procedures and equipment as described in the description, and the central pore diameter is calculated as a median diameter (D50, unit: μm) in the range of the pore diameter of 0.003 to 1.000 μm in the pore diameter distribution, wherein a volume density of the positive electrode active material layer is 2.05 to 2.80 g/cm 3, as measured by the method described in the description. the positive electrode active material layer comprises positive electrode active material particles having, on at least a part of their surfaces, a coated section comprising a conductive carbon, the positive electrode active material layer has a conductive carbon content of 0.5 to 3.0 % by mass, based on a total mass of the positive electrode active material layer, the positive electrode active material layer has a pore specific surface area of 5.0 to 10.0 m 2 /g and a central pore diameter of 0.06 to 0.15 μm, wherein the pore specific surface area and the central pore diameter of the positive electrode active material layer are values measured by the mercury intrusion method utilizing the procedures and equipment as described in the description, and the central pore diameter is calculated as a median diameter (D50, unit: μm) in the range of the pore diameter of 0.003 to 1.000 μm in the pore diameter distribution,