mhurhangee/ep-ind-claims huggingface dataset:
A valve for fluids, preferably for gases, comprising: - an inlet passage and an outlet passage for the fluid within which a primary volume is defined; - a shutter interposed between the inlet passage and the outlet passage and movable along a movement direction between an open position, in which it allows the flow of the fluid from the inlet passage to the outlet passage, and a closed position, in which it prevents the flow of fluid; - an actuating means movable along the movement direction and operatively active on the shutter for moving the shutter itself into the open position; - a first stabilisation membrane interposed between the shutter and a fixed portion of the valve; said first stabilisation membrane being conformed so as to expose an active wall to the fluid present between the outlet passage and the shutter; said active wall having an outer surface arranged at the outlet passage and facing towards a rear surface of the shutter opposite the inlet passage; wherein the valve comprises a secondary volume arranged along the movement direction and separated from the primary volume by the first stabilisation membrane; said shutter having a through hole configured to put said secondary volume in fluid connection with said inlet passage when said shutter is in the closed position and when the valve has a normal pressure condition; said actuating means comprising an interstitial space in fluid communication with said through hole for the passage of the fluid towards said secondary volume; characterised in that said outer surface of said active wall is conformed so that the pressure of the fluid acting on said active wall generates a force that is lower than the force generated by the pressure of the fluid acting on the rear surface of the shutter so as to prevent the fluid opening the shutter, when the shutter is in the closed position and when the valve is in a back pressure condition, in which the fluid flows from the outlet passage to the inlet passage. - an inlet passage and an outlet passage for the fluid within which a primary volume is defined; - a shutter interposed between the inlet passage and the outlet passage and movable along a movement direction between an open position, in which it allows the flow of the fluid from the inlet passage to the outlet passage, and a closed position, in which it prevents the flow of fluid; - an actuating means movable along the movement direction and operatively active on the shutter for moving the shutter itself into the open position; - a first stabilisation membrane interposed between the shutter and a fixed portion of the valve; said first stabilisation membrane being conformed so as to expose an active wall to the fluid present between the outlet passage and the shutter; said active wall having an outer surface arranged at the outlet passage and facing towards a rear surface of the shutter opposite the inlet passage;
A method of forming, by means of plastic deformation, a frontal toothing on an inner ring of a wheel hub, comprising the steps of: - forming the inner ring of the wheel hub as the joining of a spindle and an insert ring fitted onto the spindle, on the side of a first end of the spindle; - axially blocking the ring on the spindle by plastically deforming the first end of the spindle so as to form an upset collar therewith, which axially protrudes from the ring; and - frontally impressing the frontal toothing onto the collar, on the side opposite to the ring, said step of impressing the frontal toothing onto the collar being carried out only after the step of forming the upset collar, sequentially after the end of the step of forming the collar, directly onto the finished upset collar; characterized in that the step of impressing the frontal toothing is carried out by axially impressing, in sequence, one or more axially sliding, guided knives onto the collar. - forming the inner ring of the wheel hub as the joining of a spindle and an insert ring fitted onto the spindle, on the side of a first end of the spindle; - axially blocking the ring on the spindle by plastically deforming the first end of the spindle so as to form an upset collar therewith, which axially protrudes from the ring; and - frontally impressing the frontal toothing onto the collar, on the side opposite to the ring, said step of impressing the frontal toothing onto the collar being carried out only after the step of forming the upset collar, sequentially after the end of the step of forming the collar, directly onto the finished upset collar;
Method of stunning and/or killing, that is slaughter or depopulation and other situations, of animals such as poultry, pigs, chinchillas, mustelids, rabbits and animals used for fur, in a controlled atmosphere, comprising the steps of: - bringing the animals into an airtight chamber and closing the chamber; - creating a vacuum inside the chamber in such a way as to reach an absolute pressure lower than an ambient pressure external to said chamber; - after the absolute pressure has been reached, adding into the chamber at least one gas apt to cause stunning and/or killing of the animals, said gas in such a quantity as to reach a preset percentage of the volume of air remaining in the chamber after decompression; comprising the step of selecting the quantity of gas to be fed into the chamber after decompression as a function of the absolute pressure created in the chamber, wherein the quantity of fed gas is controlled by means of the measuring of the actual pressure inside the chamber. - bringing the animals into an airtight chamber and closing the chamber; - creating a vacuum inside the chamber in such a way as to reach an absolute pressure lower than an ambient pressure external to said chamber; - after the absolute pressure has been reached, adding into the chamber at least one gas apt to cause stunning and/or killing of the animals, said gas in such a quantity as to reach a preset percentage of the volume of air remaining in the chamber after decompression; comprising the step of selecting the quantity of gas to be fed into the chamber after decompression as a function of the absolute pressure created in the chamber, wherein the quantity of fed gas is controlled by means of the measuring of the actual pressure inside the chamber.
A control unit of an injection molding machine, comprising: a motor driving element disposed in an internal space of a control unit housing; and a cooling unit for cooling the motor driving element, wherein the cooling unit includes a flow path member including a heat sink thermally connected to the motor driving element, and at least one first fan (F 0, F 1) forming a flow path together with at least the flow path member, and configured to generate a first airflow flowing through the flow path, and wherein the flow path has an inlet in a first side surface portion of the control unit housing, has an outlet in a second side surface portion of the control unit housing, and is configured to prevent the first airflow flowing in the flow path from flowing out of the flow path in the control unit housing by an operation of the first fan, characterized in that the cooling unit further includes at least one duct that forms the flow path together with the flow path member and the first fan, and the duct is attached to the flow path member in a form of surrounding the first fan, and wherein the cooling unit further includes a sealing material disposed between the control unit housing and the duct. a motor driving element disposed in an internal space of a control unit housing; and a cooling unit for cooling the motor driving element, wherein the cooling unit includes a flow path member including a heat sink thermally connected to the motor driving element, and at least one first fan (F 0, F 1) forming a flow path together with at least the flow path member, and configured to generate a first airflow flowing through the flow path, and wherein the flow path has an inlet in a first side surface portion of the control unit housing, has an outlet in a second side surface portion of the control unit housing, and is configured to prevent the first airflow flowing in the flow path from flowing out of the flow path in the control unit housing by an operation of the first fan, characterized in that the cooling unit further includes at least one duct that forms the flow path together with the flow path member and the first fan, and the duct is attached to the flow path member in a form of surrounding the first fan, and wherein the cooling unit further includes a sealing material disposed between the control unit housing and the duct.
A method performed by a wireless device, the method comprising: detecting a radio link failure, RLF; performing a reestablishment procedure; determining whether the reestablishment procedure was successful; storing information about the success or failure of the reestablishment procedure in a RLF report; upon the wireless device transitioning from an idle mode to a connected mode in a currently connected cell, determining that a reconnect cell identifier is absent from the RLF report and conditionally including an identifier of the currently connected cell as the reconnect cell identifier; and transmitting the RLF report to a network node. detecting a radio link failure, RLF; performing a reestablishment procedure; determining whether the reestablishment procedure was successful; storing information about the success or failure of the reestablishment procedure in a RLF report; upon the wireless device transitioning from an idle mode to a connected mode in a currently connected cell, determining that a reconnect cell identifier is absent from the RLF report and conditionally including an identifier of the currently connected cell as the reconnect cell identifier; and transmitting the RLF report to a network node.
Attachment for fastening a conveyor element to a chain of a chain conveyor formed of chain links (14a, 14b, 14c), comprising two attachment elements (18a, 18b) which are detachably connected to one another via a connecting element, wherein each of the attachment elements (18a, 18b) has a fastening section which can be fastened to the conveyor member, and an attachment horn which is attachable to a chain link, the attachment horn has a curved contact surface which is configured to abut to a curved section of the chain link, wherein each attachment element (18a, 18b) has a connecting section shaped complementary to each other, wherein in the connected state of the attachment elements (18a, 18b) the connecting sections shaped complementary to each other form at least one receiving opening and/or a receiving opening section for inserting the connecting element, characterised in that a concave recess is introduced into the contact surface, which is configured in such a way that the curved section lies in the recess in a positive locking manner and free of play, and, in that the fastening section has a recess for the positive locking contact of a straight section of the chain link.
A system for readout of qubits, the system comprising: a plurality of bandpass, BP, filter resonant sections that are each coupled to a different respective point on a read line, wherein each BP filter resonant section is coupled to a respective qubit through a respective qubit readout resonator; a plurality of tunable couplers, wherein each tunable coupler is coupled between a respective BP filter resonant section and a qubit readout resonator; and a coupling controller that controls the coupling strength of each qubit to the read line by controlling the impedance of each tunable coupler of the plurality of tunable couplers. a plurality of bandpass, BP, filter resonant sections that are each coupled to a different respective point on a read line, wherein each BP filter resonant section is coupled to a respective qubit through a respective qubit readout resonator; a plurality of tunable couplers, wherein each tunable coupler is coupled between a respective BP filter resonant section and a qubit readout resonator; and a coupling controller that controls the coupling strength of each qubit to the read line by controlling the impedance of each tunable coupler of the plurality of tunable couplers.
A road milling machine, comprising a collection device for collecting the material cut from the surface by a milling drum, the collection device comprising: a guide including a material discard opening and an attachment face; a conveyor support linked to the guide wherein the guide is suitable to be positioned to direct milled particles from the road through the material discard opening to the conveyor support; characterized in that, the conveyor support is fixed to the guide by at least one four bar linkage, such that the conveyer support is shiftable in a substantially horizontal plane with respect to the attachment face of the guide, wherein the guide further includes a removable section positioned to expand the size of the material discard opening. a guide including a material discard opening and an attachment face; a conveyor support linked to the guide wherein the guide is suitable to be positioned to direct milled particles from the road through the material discard opening to the conveyor support; characterized in that, the conveyor support is fixed to the guide by at least one four bar linkage, such that the conveyer support is shiftable in a substantially horizontal plane with respect to the attachment face of the guide, wherein the guide further includes a removable section positioned to expand the size of the material discard opening.
An interface, comprising: a physical interface (108 110) including a first type physical interface and a different second type physical interface which are both selectively enabled to interface a common set of pads; first transport protocol circuitry operative with said first type physical interface in a first operating mode (702 STD); second transport protocol circuitry operative with said second type physical interface in a second operating mode (708 HS); a memory which stores a mode value (MODE_HS) indicative of one of said first and second operating modes; characterized by further comprising a mode controller which enables said first type physical interface to operate with said first transport protocol circuitry in said first operating mode upon power up or reset, and which dynamically transitions to said second operating mode by disabling said first type physical interface and enabling said second type physical interface to operate with said second transport protocol circuitry when said second operating mode is indicated by said mode value; and wherein said mode controller programs said mode value in response to a command received by an operative one of said first transport protocol circuitry and said second transport protocol circuitry via an enabled one of said first type physical interface and said second type physical interface. a physical interface (108 110) including a first type physical interface and a different second type physical interface which are both selectively enabled to interface a common set of pads; first transport protocol circuitry operative with said first type physical interface in a first operating mode (702 STD); second transport protocol circuitry operative with said second type physical interface in a second operating mode (708 HS); a memory which stores a mode value (MODE_HS) indicative of one of said first and second operating modes; characterized by further comprising a mode controller which enables said first type physical interface to operate with said first transport protocol circuitry in said first operating mode upon power up or reset, and which dynamically transitions to said second operating mode by disabling said first type physical interface and enabling said second type physical interface to operate with said second transport protocol circuitry when said second operating mode is indicated by said mode value; and wherein said mode controller programs said mode value in response to a command received by an operative one of said first transport protocol circuitry and said second transport protocol circuitry via an enabled one of said first type physical interface and said second type physical interface.
Device for transporting and installing a BOP stack for a land- based drilling rig, comprising: a skid for transporting a BOP stack in a substantially horizontal position; and a moveable support configured to be fixed removably to one end of the BOP stack and to translate longitudinally on the skid; characterized in that a section of the skid is extendable longitudinally outwards from an end of the skid, into an extended configuration in which the section can be placed adjacent to or on a place of installation of the BOP stack, and wherein the section of the skid is configured to be part of the skid on which the moveable support is configured to translate, so that the moveable support may translate longitudinally onto the section of the skid, in its extended configuration, to be above the place of installation. a skid for transporting a BOP stack in a substantially horizontal position; and a moveable support configured to be fixed removably to one end of the BOP stack and to translate longitudinally on the skid; characterized in that a section of the skid is extendable longitudinally outwards from an end of the skid, into an extended configuration in which the section can be placed adjacent to or on a place of installation of the BOP stack, and wherein the section of the skid is configured to be part of the skid on which the moveable support is configured to translate, so that the moveable support may translate longitudinally onto the section of the skid, in its extended configuration, to be above the place of installation.
A method of wirelessly transmitting power, comprising: creating a first coupling region of a first electromagnetic field within a near field of a power supply transmit antenna of a wireless power supply; coupling the first electromagnetic field and a receiver antenna of a first receiver device within the first coupling region; creating a second coupling region of a second electromagnetic field that is: (i) different from the first coupling region and (ii) within a near field of a transmit antenna of the first receiver device; coupling the second electromagnetic field to a receive antenna of a second receiver device within the second coupling region; wirelessly delivering power from the wireless power supply to the first receiver device by way of the power supply transmit antenna via the first coupling region; causing at least some of the power wirelessly delivered to, and received by, the first receiver device to be re-transmitted to the second receiver device by way of both (i) the transmit antenna of the first receiver device and (ii) the second coupling region of the electromagnetic field; the method characterized by: establishing a communication channel between the wireless power supply and the first receiver device and between the first receiver device and the second receiver device for receiving power requirement information from each of the first receiver device and the second receiver device based on changes in characteristic load factors associated with the first receiver device and the second receiver device. creating a first coupling region of a first electromagnetic field within a near field of a power supply transmit antenna of a wireless power supply; coupling the first electromagnetic field and a receiver antenna of a first receiver device within the first coupling region; creating a second coupling region of a second electromagnetic field that is: (i) different from the first coupling region and (ii) within a near field of a transmit antenna of the first receiver device; coupling the second electromagnetic field to a receive antenna of a second receiver device within the second coupling region; wirelessly delivering power from the wireless power supply to the first receiver device by way of the power supply transmit antenna via the first coupling region; causing at least some of the power wirelessly delivered to, and received by, the first receiver device to be re-transmitted to the second receiver device by way of both (i) the transmit antenna of the first receiver device and (ii) the second coupling region of the electromagnetic field; the method characterized by: establishing a communication channel between the wireless power supply and the first receiver device and between the first receiver device and the second receiver device for receiving power requirement information from each of the first receiver device and the second receiver device based on changes in characteristic load factors associated with the first receiver device and the second receiver device.
3-Ethoxy-6-{2-[1-(6-methyl-pyridazin-3-yl)-piperidin-4-yl]-ethoxy}-benzo[d]isoxazole or a pharmaceutically acceptable salt thereof for use in the treatment or alleviation of an enteroviral infection caused by a serotype of one or more of the species Human enterovirus A, Human enterovirus B, Human enterovirus C and Human enterovirus D, in a subject suffering from said infection, said treatment further comprising the step of administering a second anti-enteroviral agent, wherein the second anti-enteroviral agent is rupintrivir (AG-7088) or enviroxime.
A method for handling a relative phase error between radio chains in a radio base station having at least two radio chains, said radio base station being configured for precoding information symbols by means of a precoding matrix for multi-antenna transmission to a number of user equipment terminals, said method comprising the steps of: - compiling precoding matrix statistics based on feedback information representative of precoding matrix index from at least one of said user equipment terminals collected over time to represent phase coherency between at least two of said radio chains; - detecting (S2; S12) a relative phase error between at least two of said radio chains and estimating a phase compensation value for at least one of said radio chains based on said precoding matrix statistics and pre-established precoding matrix reference information representing, for each of a number of relative phase errors, how frequent each of a number of precoding matrix indices is assumed to be used for indicating preferred precoding matrix; and - compensating (S3; S 14) for said detected relative phase error by applying a phase compensation for at least one of said radio chains based on said estimated phase compensation value. - compiling precoding matrix statistics based on feedback information representative of precoding matrix index from at least one of said user equipment terminals collected over time to represent phase coherency between at least two of said radio chains; - detecting (S2; S12) a relative phase error between at least two of said radio chains and estimating a phase compensation value for at least one of said radio chains based on said precoding matrix statistics and pre-established precoding matrix reference information representing, for each of a number of relative phase errors, how frequent each of a number of precoding matrix indices is assumed to be used for indicating preferred precoding matrix; and - compensating (S3; S 14) for said detected relative phase error by applying a phase compensation for at least one of said radio chains based on said estimated phase compensation value.