mhurhangee/ep-ind-claims huggingface dataset:
A turbocompound unit comprising a bearing housing and a turbine shaft being rotatably supported in the bearing housing, wherein one end of the turbine shaft is provided with a turbine wheel, the turbocompound unit further comprising a diffuser duct in which the turbine wheel is arranged to rotate, an exhaust collector extending from the diffuser duct to an exhaust outlet, and a sealing arrangement positioned in the vicinity of the turbine wheel for preventing oil from escaping from the bearing housing to the diffuser duct, characterized in that a buffer gas duct leads into the exhaust collector, whereby the buffer gas duct is arranged to supply exhaust gas from the exhaust collector to the sealing arrangement for pressurizing the sealing arrangement. a bearing housing and a turbine shaft being rotatably supported in the bearing housing, wherein one end of the turbine shaft is provided with a turbine wheel, the turbocompound unit further comprising a diffuser duct in which the turbine wheel is arranged to rotate, an exhaust collector extending from the diffuser duct to an exhaust outlet, and a sealing arrangement positioned in the vicinity of the turbine wheel for preventing oil from escaping from the bearing housing to the diffuser duct, characterized in that a buffer gas duct leads into the exhaust collector, whereby the buffer gas duct is arranged to supply exhaust gas from the exhaust collector to the sealing arrangement for pressurizing the sealing arrangement.
Method for determining the mass flow of a dosing device for bulk materials, which has a storage container, the storage container of the dosing device being connected to a refilling station having a refilling container, wherein the doser has at least one gravimetric scale for gravimetric dosing via a discharge conveyor of the doser, and the refill container periodically refills the supply container with bulk material from a lower filling level to a filled state and is provided with a sensor for a parameter for the refill quantity dispensed, and wherein, during refilling, the output conveyor is controlled by a volumetric control model, characterized in that the weight of bulk material refilled into the storage container during refilling is determined from the data of the sensor for the refilling quantity output from the refilling station and the increase in the weight of bulk material in the storage container during refilling of the storage container, and the actual bulk material flow output during refilling is calculated from the difference between these weights.
A valve for a sanitary fitting, comprising - a liquid duct with at least one inlet and at least one outlet for a liquid; - a membrane valve with a membrane and a counterpressure chamber connected to the at least one inlet; and - a control rod for controlling the membrane valve, wherein the control rod can be adjusted by means of a push button between a closed position, in which the membrane valve is closed, and an open position, in which the membrane valve is at least partially open, wherein the control rod can be adjusted in the open position by means of a rotary handle between a minimum flow position, in which a minimum flow rate of the liquid flows through the at least one outlet, and a maximum flow position, in which a maximum flow rate of the liquid flows through the at least one outlet, and characterized in that the minimum flow position of the control rod is variably adjustable, wherein the control rod is connected to a sliding block via which the control rod can be adjusted between the minimum flow position and the maximum flow position when the rotary handle is rotated, wherein the control rod is connected to the sliding block via a first thread, wherein the sliding block is connected to the rotary handle via a second thread, wherein the first thread has a greater thread pitch than the second thread. - a liquid duct with at least one inlet and at least one outlet for a liquid; - a membrane valve with a membrane and a counterpressure chamber connected to the at least one inlet; and - a control rod for controlling the membrane valve, wherein the control rod can be adjusted by means of a push button between a closed position, in which the membrane valve is closed, and an open position, in which the membrane valve is at least partially open, wherein the control rod can be adjusted in the open position by means of a rotary handle between a minimum flow position, in which a minimum flow rate of the liquid flows through the at least one outlet, and a maximum flow position, in which a maximum flow rate of the liquid flows through the at least one outlet, and the minimum flow position of the control rod is variably adjustable, wherein the control rod is connected to a sliding block via which the control rod can be adjusted between the minimum flow position and the maximum flow position when the rotary handle is rotated, wherein the control rod is connected to the sliding block via a first thread, wherein the sliding block is connected to the rotary handle via a second thread, wherein the first thread has a greater thread pitch than the second thread.
An inlet system for a gas turbine comprising a filter section defining a hollow chamber and having a sorption arrangement (30, 130, 230) positioned within the chamber, the sorption arrangement (30, 130, 230) including: a sorbent-laden media positioned within the inlet system for the gas turbine, the sorbent-laden media including one or more sorbents, wherein the sorbent-laden media is configured to contact inlet air passing through the inlet system for the gas turbine such that gas phase contaminants are removed from the inlet air by the sorbent-laden media; and a support structure (50, 150) positioned within the inlet system for the gas turbine; wherein the sorbent-laden media is supported on a support wall of the support structure (50, 150); characterized in that the support structure (50, 150) defines a hollow interior with one or more openings extending through the support structure (50, 150) between the hollow interior on one side and the sorbent-laden media on an opposing second side. a sorbent-laden media positioned within the inlet system for the gas turbine, the sorbent-laden media including one or more sorbents, wherein the sorbent-laden media is configured to contact inlet air passing through the inlet system for the gas turbine such that gas phase contaminants are removed from the inlet air by the sorbent-laden media; and a support structure (50, 150) positioned within the inlet system for the gas turbine; wherein the sorbent-laden media is supported on a support wall of the support structure (50, 150); characterized in that the support structure (50, 150) defines a hollow interior with one or more openings extending through the support structure (50, 150) between the hollow interior on one side and the sorbent-laden media on an opposing second side.
A solder alloy for forming a fillet, the solder alloy having an alloy composition consisting of, in mass %: Bi: 0.1 to 0.8%; Ag: 0 to 0.3%; Cu: 0 to 0.7%, and P: 0.001 to 0.1%, with the balance being Sn and unavoidable impurities, wherein the total amount of Ag and Bi is from 0.3 to 0.8%, and the solder alloy does not contain In, Ni, Zn, Al and Sb, and wherein the solder alloy has a solid phase ratio at 235°C of 0.02 vol.% or less, and a liquid phase ratio at 210°C of 5.0 vol.% or less, the solid phase ratio and liquid phase ratio being calculated using "Pandat" manufactured by Material Design Technology Co. Ltd. Bi: 0.1 to 0.8%; Ag: 0 to 0.3%; Cu: 0 to 0.7%, and P: 0.001 to 0.1%,
An apparatus for controlling a power supplied to a fixing unit of an image forming device, the apparatus comprising: at least one heating lamp; a voltage detector for detecting a voltage of an input power supplied to heat the at least one heating lamp; a synch signal generator for generating a synch signal in response to the detected voltage; a switching unit for switching a supply path of the input power to be applied to the at least one heating lamp; and a controller having table information of temporal duty level values for the input power that is initially supplied, wherein the switching unit is operable to perform the switching operation corresponding to a control signal, wherein the switching unit comprises at least two self turn-off switching components including a first self turn-off switching component (SW 1) and a second self turn-off switching component, characterised in that the controller is configured to output the control signal for alternately controlling a switching operation of the first self turn-off switching component or the second self turn-off switching component every half-wave period of the input power and for controlling the respective first and second switching components to switch on and off a plurality of times within a half-wave period according to a duty level value associated with the half-wave period using the generated synch signal and the table information. at least one heating lamp; a voltage detector for detecting a voltage of an input power supplied to heat the at least one heating lamp; a synch signal generator for generating a synch signal in response to the detected voltage; a switching unit for switching a supply path of the input power to be applied to the at least one heating lamp; and a controller having table information of temporal duty level values for the input power that is initially supplied, wherein the switching unit is operable to perform the switching operation corresponding to a control signal, wherein the switching unit comprises at least two self turn-off switching components including a first self turn-off switching component (SW 1) and a second self turn-off switching component, characterised in that the controller is configured to output the control signal for alternately controlling a switching operation of the first self turn-off switching component or the second self turn-off switching component every half-wave period of the input power and for controlling the respective first and second switching components to switch on and off a plurality of times within a half-wave period according to a duty level value associated with the half-wave period using the generated synch signal and the table information.
A method of manufacturing a liquid discharge head substrate, the method comprising: forming a first substrate that includes a semiconductor element and a first wiring structure; forming a second substrate that includes a liquid discharge element and a second wiring structure; and bonding the first wiring structure and the second wiring structure such that the semiconductor element and the liquid discharge element are electrically connected to each other after the forming the first substrate and the second substrate, forming a protective film above a base, forming the liquid discharge element above the protective film, forming the second wiring structure above the liquid discharge element after forming the liquid discharge element, characterised in that forming the second substrate includes annealing at least one of the liquid discharge element and the protective film at a temperature not lower than 400°C before forming the second wiring structure. forming a first substrate that includes a semiconductor element and a first wiring structure; forming a second substrate that includes a liquid discharge element and a second wiring structure; and bonding the first wiring structure and the second wiring structure such that the semiconductor element and the liquid discharge element are electrically connected to each other after the forming the first substrate and the second substrate, forming a protective film above a base, forming the liquid discharge element above the protective film, forming the second wiring structure above the liquid discharge element after forming the liquid discharge element, forming a protective film above a base, forming the liquid discharge element above the protective film, forming the second wiring structure above the liquid discharge element after forming the liquid discharge element, characterised in that forming the second substrate includes annealing at least one of the liquid discharge element and the protective film at a temperature not lower than 400°C before forming the second wiring structure.
A wireless communication apparatus, comprising: a first measurement unit for measuring a first wireless quality that is a wireless quality of a first communication network; a second measurement unit for measuring a second wireless quality that is a wireless quality of a second communication network; the wireless communication apparatus being characterised by: a determination unit for determining a ratio between the number of first network sockets to be used for the first communication network and the number of second network sockets to be used for the second communication network, based on the first wireless quality or the second wireless quality; and a transmission unit for generating the first network sockets and the second network sockets at the ratio determined by the determination unit to transmit data by using each of the generated network sockets. a first measurement unit for measuring a first wireless quality that is a wireless quality of a first communication network; a second measurement unit for measuring a second wireless quality that is a wireless quality of a second communication network; the wireless communication apparatus being characterised by: a determination unit for determining a ratio between the number of first network sockets to be used for the first communication network and the number of second network sockets to be used for the second communication network, based on the first wireless quality or the second wireless quality; and a transmission unit for generating the first network sockets and the second network sockets at the ratio determined by the determination unit to transmit data by using each of the generated network sockets. a determination unit for determining a ratio between the number of first network sockets to be used for the first communication network and the number of second network sockets to be used for the second communication network, based on the first wireless quality or the second wireless quality; and a transmission unit for generating the first network sockets and the second network sockets at the ratio determined by the determination unit to transmit data by using each of the generated network sockets.
An inlet diffuser for a fixed-bed reactor, the inlet diffuser comprising: a truncated cone adapted to receive a stream of gas-liquid mixture, wherein the truncated cone includes at least one opening formed on a circumference of the truncated cone; a vertical baffle plate in each of the one or more openings in truncated cone to break the stream; at least one horizontal baffle positioned at the upper portion of the truncated cone and adapted to absorb momentum of the stream received by the truncated cone; a cylindrical chamber in fluid communication with the truncated cone and adapted to receive the stream from the truncated cone, wherein the cylindrical chamber includes at least one slot adapted to discharge the stream from the inlet diffuser; and a splash plate disposed at a bottom portion of the cylindrical chamber and comprising one or more apertures adapted to discharge the stream from the inlet diffuser. a truncated cone adapted to receive a stream of gas-liquid mixture, wherein the truncated cone includes at least one opening formed on a circumference of the truncated cone; a vertical baffle plate in each of the one or more openings in truncated cone to break the stream; at least one horizontal baffle positioned at the upper portion of the truncated cone and adapted to absorb momentum of the stream received by the truncated cone; a cylindrical chamber in fluid communication with the truncated cone and adapted to receive the stream from the truncated cone, wherein the cylindrical chamber includes at least one slot adapted to discharge the stream from the inlet diffuser; and a splash plate disposed at a bottom portion of the cylindrical chamber and comprising one or more apertures adapted to discharge the stream from the inlet diffuser.
Method for performing an information exchange between at least two processes (FEED_PROC-1, FEED_PROC-2, CONSUME_PROC-1) communicating with each other using at least one queue (QUEUE-001), wherein • at least one information feeding process (FEED_PROC-1, FEED_PROC-2) places pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) into the at least one queue (QUEUE-001), and • at least one information consuming process (CONSUME_PROC-1) sequentially consumes the pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) from the at least one queue (QUEUE-001); wherein each piece of information comprises identifying information (F003, F004, F005, F006), characterized in that placing the pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) from the at least one information feeding process (FEED_PROC-1, FEED_PROC-2) into the at least one queue (QUEUE-001) is done according to an a priori specified placement plan, the placement plan describes, for each of at least one possible value of the identifying information (MESG), a respective position where pieces of information of a message type as specified by the respective value of identifying information, or respective references thereto, are to be placed into the queue (QUEUE-001), and the pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) or respective references thereto are placed into the at least one queue (QUEUE-001) at respective positions in the queue (QUEUE-001) as defined in the placement plan by the respective values of the identifying information (MESG) comprised in the pieces of information. • at least one information feeding process (FEED_PROC-1, FEED_PROC-2) places pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) into the at least one queue (QUEUE-001), and • at least one information consuming process (CONSUME_PROC-1) sequentially consumes the pieces of information (MESG-001, MESG-002, MESG-003, MESG-004) from the at least one queue (QUEUE-001);
Device for gemination of seed, or germinator, comprising: a chamber defined by walls (10, 11, 12, 13, 14, 15), at least one removable tray extending inside the chamber, said tray being configured to accommodate seeds, a spray nozzle configured to alternately disperse in the chamber, a water-air mixture as droplets, or air only, a control unit of the germination of the seed within the germinator configured to implement a step consisting in determining, from ambient parameters of the germinator, information relating to the amount, type of seeds to be germinated, and their respective location within the chamber, and from germination parameters specific to germination of seeds to be germinated in said chamber, parameters for controlling the spray nozzle so as to obtain, in the chamber, an environment conducive to germination of seeds, said controlled parameters comprising a frequency of dispersion, through the spray nozzle, the water-air mixture as droplets, and a frequency of dispersion of air; characterized in that the chamber is confined and in that the device comprises, furthermore: an air supply circuit, a water supply circuit, the spray nozzle being connected on the one hand to the air supply circuit, and on the other hand to the water supply circuit, the nozzle being disposed so that a portion of the nozzle extends within the chamber and so as to alternately disperse an air-water mixture, or air only, at the upper surface of the receptacle space of the tray.
A wire replacement device configured to be applied to a sheet production system in which two or more creel stands are used, each of the creel stands being allowed to accommodate a plurality of wires, characterized in that the wire replacement device comprises: a plurality of carriages which is movable in a space provided between the creel stands and a calender device and to which one roll or a plurality of rolls (25, 26) for aligning the wires supplied to the calender device is detachably attached; and a splicer configured to join back end portions (W1b) of a plurality of preceding first wires passing through the calender device to front end portions (W2a) of a plurality of subsequent second wires extending from the creel stands at a joining position between the calender device and the creel stands, wherein each of the carriages is configured to be movable to a first position on a side of the calender device with respect to the joining position at which the splicer is located and movable to a second position on an opposite side from the calender device with respect to the joining position, wherein the splicer is configured to be movable to the joining position and to a standby position (PSa) separated from the joining position, and the wire replacement device further comprising a moving path of the carriages including a circling path passing through the first position and the second position. a plurality of carriages which is movable in a space provided between the creel stands and a calender device and to which one roll or a plurality of rolls (25, 26) for aligning the wires supplied to the calender device is detachably attached; and a splicer configured to join back end portions (W1b) of a plurality of preceding first wires passing through the calender device to front end portions (W2a) of a plurality of subsequent second wires extending from the creel stands at a joining position between the calender device and the creel stands, wherein each of the carriages is configured to be movable to a first position on a side of the calender device with respect to the joining position at which the splicer is located and movable to a second position on an opposite side from the calender device with respect to the joining position, wherein the splicer is configured to be movable to the joining position and to a standby position (PSa) separated from the joining position, and the wire replacement device further comprising a moving path of the carriages including a circling path passing through the first position and the second position.
An interlayer film for laminated glass, comprising a first heat-shielding layer containing a thermoplastic resin and at least one component selected from a phthalocyanine compound, a naphthalocyanine compound, and an anthracyanine compound, and at least one second heat-shielding layer containing a thermoplastic resin and metal oxide particles, wherein the second heat-shielding layer contains or does not contain at least one component selected from a phthalocyanine compound, a naphthalocyanine compound, and an anthracyanine compound, and when the second heat-shielding layer contains the component, the amount X2 (% by weight) of the component in the second heat-shielding layer is less than the amount X1 (% by weight) of the component in the first heat-shielding layer. a first heat-shielding layer containing a thermoplastic resin and at least one component selected from a phthalocyanine compound, a naphthalocyanine compound, and an anthracyanine compound, and at least one second heat-shielding layer containing a thermoplastic resin and metal oxide particles, wherein the second heat-shielding layer contains or does not contain at least one component selected from a phthalocyanine compound, a naphthalocyanine compound, and an anthracyanine compound, and when the second heat-shielding layer contains the component, the amount X2 (% by weight) of the component in the second heat-shielding layer is less than the amount X1 (% by weight) of the component in the first heat-shielding layer.