mhurhangee/ep-ind-claims huggingface dataset:
Filter apparatus for use in a converter on an AC voltage network, having a choke unit, a capacitor unit and means for reducing saturation for the choke unit, prepared for a first operation of the converter on a network designed as an AC voltage network with a grounded external conductor or on a ground-free network designed as an AC voltage network, wherein the means for reducing saturation can be activated and the capacitor unit can be disconnected from a grounded protective conductor and prepared for a second operation of the converter on a network designed as an AC voltage network with a grounded network star point, wherein the capacitor unit can be connected to the grounded protective conductor for current dissipation of a current and the means for reducing saturation can be deactivated, wherein - the choke unit comprises a first coil in a first AC voltage phase, a second coil in a second AC voltage phase and a third coil in a third AC voltage phase of the first AC voltage cable, - the means for reducing saturation has a fourth coil of the choke unit, - the choke unit forms a common choke core on the first, second, third and fourth coil (6,7,8,9) and - the means for reducing saturation comprises a first contact unit for opening and closing a first electrical connection of a circuit on the fourth coil. prepared for a first operation of the converter on a network designed as an AC voltage network with a grounded external conductor or on a ground-free network designed as an AC voltage network, wherein the means for reducing saturation can be activated and the capacitor unit can be disconnected from a grounded protective conductor and prepared for a second operation of the converter on a network designed as an AC voltage network with a grounded network star point, wherein the capacitor unit can be connected to the grounded protective conductor for current dissipation of a current and the means for reducing saturation can be deactivated, wherein - the choke unit comprises a first coil in a first AC voltage phase, a second coil in a second AC voltage phase and a third coil in a third AC voltage phase of the first AC voltage cable, - the means for reducing saturation has a fourth coil of the choke unit, - the choke unit forms a common choke core on the first, second, third and fourth coil (6,7,8,9) and - the means for reducing saturation comprises a first contact unit for opening and closing a first electrical connection of a circuit on the fourth coil. - the choke unit comprises a first coil in a first AC voltage phase, a second coil in a second AC voltage phase and a third coil in a third AC voltage phase of the first AC voltage cable, - the means for reducing saturation has a fourth coil of the choke unit, - the choke unit forms a common choke core on the first, second, third and fourth coil (6,7,8,9) and - the means for reducing saturation comprises a first contact unit for opening and closing a first electrical connection of a circuit on the fourth coil.
A method for sending a short message from an evolved packet system to a user equipment, comprising: receiving (S110, S310, S604), by a mobile management device of the evolved packet system, a first message sent by a mobile switch center, MSC/visitor location register, VLR of a circuit switched network, wherein the first message is a paging message; determining (S120, S320), by the mobile management device, that the paging message does not comprise a location area identity, LAI; and determining, by the mobile management device, that the user equipment is in a connected state, and if so, sending (S130, S340, S611), by the mobile management device, a second message to the user equipment, wherein the second message is used to instruct the user equipment to initiate attachment to the MSC/VLR; wherein the second message is a detach request message, and a detach type of the detach request message is used to instruct the user equipment to initiate the attachment to the MSCNLR. receiving (S110, S310, S604), by a mobile management device of the evolved packet system, a first message sent by a mobile switch center, MSC/visitor location register, VLR of a circuit switched network, wherein the first message is a paging message; determining (S120, S320), by the mobile management device, that the paging message does not comprise a location area identity, LAI; and determining, by the mobile management device, that the user equipment is in a connected state, and if so, sending (S130, S340, S611), by the mobile management device, a second message to the user equipment, wherein the second message is used to instruct the user equipment to initiate attachment to the MSC/VLR;
A method for the production of hydrochar of a solid-fluid mixture of water and a carbon-containing component, wherein the solid-fluid mixture is treated at a temperature of 100-300°C and a pressure of 5-70 bar in a laminar stream reactor with at least two holding sections (1, 3) in which the average flow direction of the solid-fluid mixture is inclined to the horizontal or is essentially vertical, and at least one diverter arranged below same, and wherein the solid-fluid mixture, after passing through a downwardly-directed one of the holding sections and the lower diverter, flows through an upwardly-directed one of the holding sections (1, 3) and thereafter through an upper diverter, the method characterized in that a total residence time in the pressurized heat exchangers (28, 39) and the reactor units of the laminar stream reactor is more than 2 hours, and in that the average flow velocity ν 2 of the solid-fluid mixture in the lower diverter is 1 to 1000 times larger than in an abutting holding section (1, 3).
A process for the manufacture of a powder coating comprising the steps of: Preparing a powder coating premix comprising a resin and a crosslinker for said resin; Feeding the premix through a melt extruder; Cooling the extruded material; and Comminuting it to fine particles, wherein said process is characterized in that - between 1 and 25 wt. % (based on the weight of said premix) of a process liquid is added to the melt extruder, wherein said process liquid is selected from the group consisting of water, demineralized water, distilled water, volatile silicone oils and liquid mixtures or emulsions thereof, wherein said process liquid is immiscible with at least said resin of the powder coating premix and wherein said process liquid evaporates when the premix leaves the extruder; and - the temperature and pressure conditions in the extruder at the portion wherein the premix is treated with the process liquid must be such that the premix remains within the molten state and the process liquid does not evaporate or reach a supercritical state. Preparing a powder coating premix comprising a resin and a crosslinker for said resin; Feeding the premix through a melt extruder; Cooling the extruded material; and Comminuting it to fine particles, - between 1 and 25 wt. % (based on the weight of said premix) of a process liquid is added to the melt extruder, wherein said process liquid is selected from the group consisting of water, demineralized water, distilled water, volatile silicone oils and liquid mixtures or emulsions thereof, wherein said process liquid is immiscible with at least said resin of the powder coating premix and wherein said process liquid evaporates when the premix leaves the extruder; and - the temperature and pressure conditions in the extruder at the portion wherein the premix is treated with the process liquid must be such that the premix remains within the molten state and the process liquid does not evaporate or reach a supercritical state.
A process for the crystallisation of a water-soluble compound from a solution comprising the following steps: a) providing, in a crystallisation vessel, a solution of the water-soluble compound in a mixture of water and a solvent in which the water-soluble compound has a lower solubility than in water; b) passing vapour phase of the mixture through a sorption zone containing a water vapour sorbent to selectively adsorb water from the vapour phase to obtain a vapour phase depleted in water and enriched in the solvent and water-saturated water vapour sorbent; c) enriching the mixture in the crystallisation vessel in solvent by recycling at least part of the vapour phase depleted in water and enriched in the solvent to the crystallisation vessel or withdrawing vapour phase depleted in water from the process and adding solvent from an external source to the crystallisation vessel; d) allowing solid crystals of the water-soluble compound to precipitate from the solution in the crystallisation vessel at a crystallisation temperature; and e) discharging precipitated solid crystals of the water-soluble compound from the crystallisation vessel and discharging a solution of non-crystallised water-soluble compound in water-solvent mixture from the crystallisation vessel. a) providing, in a crystallisation vessel, a solution of the water-soluble compound in a mixture of water and a solvent in which the water-soluble compound has a lower solubility than in water; b) passing vapour phase of the mixture through a sorption zone containing a water vapour sorbent to selectively adsorb water from the vapour phase to obtain a vapour phase depleted in water and enriched in the solvent and water-saturated water vapour sorbent; c) enriching the mixture in the crystallisation vessel in solvent by recycling at least part of the vapour phase depleted in water and enriched in the solvent to the crystallisation vessel or withdrawing vapour phase depleted in water from the process and adding solvent from an external source to the crystallisation vessel; d) allowing solid crystals of the water-soluble compound to precipitate from the solution in the crystallisation vessel at a crystallisation temperature; and e) discharging precipitated solid crystals of the water-soluble compound from the crystallisation vessel and discharging a solution of non-crystallised water-soluble compound in water-solvent mixture from the crystallisation vessel.
A manufacturing method of a porous glass preform for optical fiber by depositing glass microparticles on a starting member, the manufacturing method comprising: supplying a vaporizer with organic silicon compound raw material in a liquid state and a carrier gas; in the vaporizer, mixing together and vaporizing the organic silicon compound raw material in a liquid state and the carrier gas to convert the organic silicon compound raw material and the carrier gas into a raw material mixed gas; supplying a burner with the raw material mixed gas and a combustible gas, combusting the raw material mixed gas and the combustible gas in the burner, and ejecting SiO 2 microparticles generated by the combustion from the burner; and depositing the SiO 2 microparticles ejected from the burner on the starting member, characterized in that the SiO 2 microparticles are deposited by repeatedly moving the vaporizer and the burner together, in a synchronized manner, parallel to the starting member in a longitudinal direction thereof. supplying a vaporizer with organic silicon compound raw material in a liquid state and a carrier gas; in the vaporizer, mixing together and vaporizing the organic silicon compound raw material in a liquid state and the carrier gas to convert the organic silicon compound raw material and the carrier gas into a raw material mixed gas; supplying a burner with the raw material mixed gas and a combustible gas, combusting the raw material mixed gas and the combustible gas in the burner, and ejecting SiO 2 microparticles generated by the combustion from the burner; and depositing the SiO 2 microparticles ejected from the burner on the starting member, characterized in that the SiO 2 microparticles are deposited by repeatedly moving the vaporizer and the burner together, in a synchronized manner, parallel to the starting member in a longitudinal direction thereof.
A spring assembly for an isolator or other torque transfer device, comprising: a first helical compression spring and a second helical compression spring, wherein each of the helical compression springs (22a, 22b) has a central aperture (46, 47) and has a first end (42a, 42b) and a second end (44a, 44b), wherein the second spring is coaxial with and nested within the first spring; a retainer having a base and a post that extends from the base into the central aperture at the first end of the second helical spring; characterized in that the spring assembly further comprising a spring housing that has an interior space in which the first and second springs (22a, 22b) are positioned, and further includes a base-engaging aperture that holds the base of the retainer, wherein the spring housing includes a drive wall that is engaged with the first ends (42a, 42b) of the first and second springs (22a, 22b). a first helical compression spring and a second helical compression spring, wherein each of the helical compression springs (22a, 22b) has a central aperture (46, 47) and has a first end (42a, 42b) and a second end (44a, 44b), wherein the second spring is coaxial with and nested within the first spring; a retainer having a base and a post that extends from the base into the central aperture at the first end of the second helical spring; characterized in that the spring assembly further comprising a spring housing that has an interior space in which the first and second springs (22a, 22b) are positioned, and further includes a base-engaging aperture that holds the base of the retainer, wherein the spring housing includes a drive wall that is engaged with the first ends (42a, 42b) of the first and second springs (22a, 22b).
Metal structure that serves as an internal support to a dental prosthesis, where said metal structure comprises at least two support posts arranged along respective longitudinal axes in order to be attached on respective dental implants, and at least one rod for connecting two adjacent support posts, wherein: - at least one support post comprises at least one protruding element (4a, 4b) that projects from an outer surface of a side of the support post; - at least one rod comprises a first end provided with a blind hole designed to receive a first protruding element of a support post, thus providing an articulated connection that acts like a ball joint, characterized in that the at least one rod comprises a longitudinal recess designed to receive a second protruding element of the adjacent support post. - at least one support post comprises at least one protruding element (4a, 4b) that projects from an outer surface of a side of the support post; - at least one rod comprises a first end provided with a blind hole designed to receive a first protruding element of a support post, thus providing an articulated connection that acts like a ball joint,
Heat exchanger device with a container, which has a fluid inlet, at least one plate heat exchanger arranged in the container, and with a distributing device (1, 101), arranged in the container above the plate heat exchanger, for distributing a fluid in the container from the fluid inlet of the container, wherein the distributing device (1, 101) comprises a conducting portion and a distributing portion adjacent to the conducting portion, and wherein the distributing portion has regions (4, 5) with openings (8, 9) for allowing the fluid to pass through, wherein the conducting portion and the distributing portion are formed by at least two conducting plates arranged against one another and substantially perpendicular to one another, wherein the one conducting plate is formed as a horizontal distributing plate and has the regions (4, 5) with openings (8, 9) for allowing fluid to pass through, and wherein the other conducting plate is formed as a vertical baffle plate, and wherein the container is cylindrically formed and the cylinder axis is arranged horizontally, wherein the baffle plate runs vertically and the distributing plate runs horizontally along or parallel to the cylinder axis, and wherein the distributing device delimits with a container wall of the container a spatial portion in the container that is coupled on the inflow side to the fluid inlet and on the outlet side to the openings as an outlet.
A slam-shut safety assembly configured to provide redundant safety shutoff in a gas distribution system, comprising: a valve body having an inlet, an outlet, and defining a flow path extending between the inlet and the outlet; a first slam-shut safety device coupled to the valve body and configured to block the flow path at a first position within the valve body responsive to an overpressure condition or an underpressure condition; and a second slam-shut safety device coupled to the valve body and configured to block the flow path at a second position within the valve body responsive to the overpressure condition or the underpressure condition, wherein the first slam-shut safety device comprises a first control element that is positioned on an inlet side of the first position and wherein the second slam-shut safety device comprises a second control element that is positioned on an outlet side of the second position, and wherein a first side of the second control element is in continuous fluid communication with a second side of the second control element, characterised in that a first side of the first control element is fluidly isolated from a second side of the first control element in a first state and in fluid communication with the second side of the first control element in a second state. a valve body having an inlet, an outlet, and defining a flow path extending between the inlet and the outlet; a first slam-shut safety device coupled to the valve body and configured to block the flow path at a first position within the valve body responsive to an overpressure condition or an underpressure condition; and a second slam-shut safety device coupled to the valve body and configured to block the flow path at a second position within the valve body responsive to the overpressure condition or the underpressure condition, wherein the first slam-shut safety device comprises a first control element that is positioned on an inlet side of the first position and wherein the second slam-shut safety device comprises a second control element that is positioned on an outlet side of the second position, and wherein a first side of the second control element is in continuous fluid communication with a second side of the second control element, characterised in that a first side of the first control element is fluidly isolated from a second side of the first control element in a first state and in fluid communication with the second side of the first control element in a second state.
First roadside network unit comprising: - a first transceiver (TA1; TC1) for a first wireless communication network, designed to receive data (DA; DC) from a second roadside network unit (NE1; UE2) on a first channel of the first wireless communication network; - a processor, designed to deliver the received data (DA; DC) to a second transceiver (TC1; TA1) for dispatch to a third roadside network unit (UE2; NE1); and - the second transceiver (TC1; TA1) for a second wireless communication network, designed to send the data (DA; DC) delivered by the processor to the third roadside network unit (UE2; NE1) on a second channel of the second communication network, - the processor being designed to determine (410; 516) whether the data (DA; DC) received by the first transceiver (TA1; TC1) relate to a road safety or a traffic efficiency, and to deliver (412; 518) the data (DA; DC) to the second transceiver (TA1; TC1) only if the data (DA; DC) relate to the road safety or the traffic efficiency. - a first transceiver (TA1; TC1) for a first wireless communication network, designed to receive data (DA; DC) from a second roadside network unit (NE1; UE2) on a first channel of the first wireless communication network; - a processor, designed to deliver the received data (DA; DC) to a second transceiver (TC1; TA1) for dispatch to a third roadside network unit (UE2; NE1); and - the second transceiver (TC1; TA1) for a second wireless communication network, designed to send the data (DA; DC) delivered by the processor to the third roadside network unit (UE2; NE1) on a second channel of the second communication network, - the processor being designed to determine (410; 516) whether the data (DA; DC) received by the first transceiver (TA1; TC1) relate to a road safety or a traffic efficiency, and to deliver (412; 518) the data (DA; DC) to the second transceiver (TA1; TC1) only if the data (DA; DC) relate to the road safety or the traffic efficiency.
A process for the manufacture of a multiple texture food product comprising the steps of: providing a dairy material selected from cream cheese, processed cheese, curd and mixtures thereof, freezing the dairy material by cooling it to a temperature of -2°C or less, aerating the frozen dairy material, shaping the aerated, frozen dairy material, depositing the shaped, aerated, frozen dairy material on or between one or more layers of a food material which is a dairy material having a Stevens firmness of at least 100, when measured at a temperature in the range of from 5 to 10°C, and which is not the aerated dairy material obtained in step, wherein the aerated dairy material has a Stevens firmness of 20 or more at a temperature in the range of from 5 to 10°C and a water activity (a w) of 0.90 or more. providing a dairy material selected from cream cheese, processed cheese, curd and mixtures thereof, freezing the dairy material by cooling it to a temperature of -2°C or less, aerating the frozen dairy material, shaping the aerated, frozen dairy material, depositing the shaped, aerated, frozen dairy material on or between one or more layers of a food material which is a dairy material having a Stevens firmness of at least 100, when measured at a temperature in the range of from 5 to 10°C, and which is not the aerated dairy material obtained in step,