mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for data storage, comprising: receiving , from a leader control plane node, at a follower control plane node of a plurality of control plane nodes of a node cluster, a replication instruction to replicate cache data of the leader control plane node in a cache of the follower control plane node and to instruct one or more access manager nodes of a distributed storage system at a second data center to store data in the distributed storage system in accordance with a request received by the leader control plane node, to cause the data to be replicated and stored at a first data center and the second data centers, the cache data identifying an instruction from the leader control plane node to one or more access manager nodes of the distributed storage system at the first data center managed by the leader control plane node, the instruction instructing the one or more access manager nodes of the distributed storage system at the first data center to store the data indicated in the request; processing, by the follower control plane node, the cache data to retrieve an instruction from the leader control plane node to one or more access manager nodes of the distributed storage system, the instruction instructing the one or more access manager nodes managed by the leader control plane node to store data indicated in the request; and instructing, by the follower control plane node, the one or more access manager nodes of the distributed storage system at the second data center to store the data in accordance with the instruction retrieved from the cache. from a leader control plane node, at a follower control plane node of a plurality of control plane nodes of a node cluster, a replication instruction to replicate cache data of the leader control plane node in a cache of the follower control plane node and to instruct one or more access manager nodes of a distributed storage system at a second data center to store data in the distributed storage system in accordance with a request received by the leader control plane node, to cause the data to be replicated and stored at a first data center and the second data centers, the cache data identifying an instruction from the leader control plane node to one or more access manager nodes of the distributed storage system at the first data center managed by the leader control plane node, the instruction instructing the one or more access manager nodes of the distributed storage system at the first data center to store the data indicated in the request; processing, by the follower control plane node, the cache data to retrieve an instruction from the leader control plane node to one or more access manager nodes of the distributed storage system, the instruction instructing the one or more access manager nodes managed by the leader control plane node to store data indicated in the request; and instructing, by the follower control plane node, the one or more access manager nodes of the distributed storage system at the second data center to store the data in accordance with the instruction retrieved from the cache.
An optical transducer , comprising: at least one optical waveguide ; at least one sensing element disposed in a portion of the optical waveguide ; a feedthrough element designed to isolate a first portion of the transducer in communication with the sensing element from a second portion of the transducer containing the sensing element , wherein the feedthrough element comprises at least a first seal formed by a first portion of the optical waveguide in contact with a bore extending through a housing of the feedthrough element and a second seal formed by contact between an arrangement of sealing elements with a second portion of the optical waveguide and an inner surface of the feedthrough housing ; and a member in contact with a third portion of the optical waveguide and configured to apply a first pre-loading force to promote sealing of at least the first seal prior to deployment in an operating environment, wherein the third portion of the optical waveguide has a maximum outer diameter greater than a maximum outer diameter of the first portion of the optical waveguide and greater than an outer diameter of the second portion of the optical waveguide to allow the pre-loading force to be applied. at least one optical waveguide ; at least one sensing element disposed in a portion of the optical waveguide ; a feedthrough element designed to isolate a first portion of the transducer in communication with the sensing element from a second portion of the transducer containing the sensing element , wherein the feedthrough element comprises at least a first seal formed by a first portion of the optical waveguide in contact with a bore extending through a housing of the feedthrough element and a second seal formed by contact between an arrangement of sealing elements with a second portion of the optical waveguide and an inner surface of the feedthrough housing ; and a member in contact with a third portion of the optical waveguide and configured to apply a first pre-loading force to promote sealing of at least the first seal prior to deployment in an operating environment, wherein the third portion of the optical waveguide has a maximum outer diameter greater than a maximum outer diameter of the first portion of the optical waveguide and greater than an outer diameter of the second portion of the optical waveguide to allow the pre-loading force to be applied.
A method for communicating time synchronized data between a client and a server, the method comprising: synchronizing , by a client, a clock of the client with a clock source; transmitting , from the client to a server, at an application level, information indicating: the clock source; a cell identifier of a serving cell of the client; and accuracy of the clock source as a time value; transmitting , from the client to the server, a message including data and a timestamp correlated to an event associated with the data based on the clock, the timestamp being relative to the clock source; and in response to the message, receiving , by the client from the server, generated data. synchronizing , by a client, a clock of the client with a clock source; transmitting , from the client to a server, at an application level, information indicating: the clock source; a cell identifier of a serving cell of the client; and accuracy of the clock source as a time value; the clock source; a cell identifier of a serving cell of the client; and accuracy of the clock source as a time value; transmitting , from the client to the server, a message including data and a timestamp correlated to an event associated with the data based on the clock, the timestamp being relative to the clock source; and in response to the message, receiving , by the client from the server, generated data.
A galley cart carbonated beverage dispensing system comprising: a housing defining a cavity ; a first mounting ring configured to support a beverage keg in the cavity ; a second mounting ring configured to support a carbonation cylinder in the cavity ; a spigot supported on a dispensing tower extending from a top of the housing and configured to be connected to the beverage keg , said dispensing tower being retractable into the cavity and extending from a support element telescopically engaged in a receiver ; and a position engagement system adapted to fix the support element in the receiver at an extended position of the dispensing tower and releasable for vertical translation of the support element in the receiver positioning the dispensing tower in a retracted position wherein the receiver is cylindrical and the position engagement system comprises one of: stubs extending from the support element and received in vertical slots in the receiver, said support element rotatable to engage the stubs in detents proximate a top of the vertical slots; or a split clamp compressing slotted segments in a collar on the receiver to engage the support element . a housing defining a cavity ; a first mounting ring configured to support a beverage keg in the cavity ; a second mounting ring configured to support a carbonation cylinder in the cavity ; a spigot supported on a dispensing tower extending from a top of the housing and configured to be connected to the beverage keg , said dispensing tower being retractable into the cavity and extending from a support element telescopically engaged in a receiver ; and a position engagement system adapted to fix the support element in the receiver at an extended position of the dispensing tower and releasable for vertical translation of the support element in the receiver positioning the dispensing tower in a retracted position wherein the receiver is cylindrical and the position engagement system comprises one of: stubs extending from the support element and received in vertical slots in the receiver, said support element rotatable to engage the stubs in detents proximate a top of the vertical slots; or a split clamp compressing slotted segments in a collar on the receiver to engage the support element . stubs extending from the support element and received in vertical slots in the receiver, said support element rotatable to engage the stubs in detents proximate a top of the vertical slots; or a split clamp compressing slotted segments in a collar on the receiver to engage the support element .
Camping vehicle with a bed, which, as seen in the longitudinal direction of the bed, comprises a head end and a foot end, and which comprises a mattress layer with three areas, characterized in that the mattress layer , as seen in the longitudinal direction of the bed, is thicker in a central area intended to accommodate the torso of a person lying in the bed than it is in the two areas at the head end and/or the foot end of the mattress layer. characterized in that the mattress layer , as seen in the longitudinal direction of the bed, is thicker in a central area intended to accommodate the torso of a person lying in the bed than it is in the two areas at the head end and/or the foot end of the mattress layer.
An electronic device comprising: a board including a first opening ; a lens unit with an optical axis in a second direction; an image sensor carrier including an image sensor ; an optical image stabilization actuator comprising a first member fixed to the board; a second member movably connected to the first member, and coupled to at least a portion of the first member; and at least one control member coupled to the first member and the second member so as to control the second member in response to movement of the electronic device, wherein the optical image stabilization actuator is coupled with the image sensor carrier, to move the image sensor carrier in a first direction vertical to the second direction, the first member comprises a second opening facing the first opening, the second member comprises a third opening facing the second opening, and the image sensor carrier including the image sensor is received in the first opening through the second opening of the first member and the third opening of the second member of the optical image stabilization actuator . a board including a first opening ; a lens unit with an optical axis in a second direction; an image sensor carrier including an image sensor ; an optical image stabilization actuator comprising a first member fixed to the board; a second member movably connected to the first member, and coupled to at least a portion of the first member; and at least one control member coupled to the first member and the second member so as to control the second member in response to movement of the electronic device, wherein the optical image stabilization actuator is coupled with the image sensor carrier, to move the image sensor carrier in a first direction vertical to the second direction, the first member comprises a second opening facing the first opening, the second member comprises a third opening facing the second opening, and the image sensor carrier including the image sensor is received in the first opening through the second opening of the first member and the third opening of the second member of the optical image stabilization actuator .
A multilayer structure comprising (a) a heat sealable layer, (b) a pressure-sensitive adhesive layer, (c) a tie layer, (d) a structure layer, and optionally (e) an additional tie layer wherein the heat sealable layer comprises amorphous polyethylene terephthalate having a melting temperature above 200°C, determined using differential scanning calorimetry according to ASTM D3418, the amorphous polyethylene terephthalate beinga semi-aromatic polyethylene terephthalate; the pressure sensitive adhesive layer comprises a pressure sensitive adhesive positioned between the heat sealable layer (a) and the tie layer (c); the tie layer comprises a polymer composition having a melting temperature of 80 to 120°C, determined using differential scanning calorimetry according to ASTM D3418; wherein one face of the tie layer (c) is in direct contact with the pressure-sensitive adhesive layer (b) and the other face of the tie layer (c) is in direct contact with the structure layer (d); the structure layer comprises an ethylene homopolymer, ethylene α-olefin copolymer, propylene homopolymer, propylene α-olefin copolymer, polyethylene terephthalate, metallized polyethylene terephthalate, oriented polypropylene, oriented polyamide, polyvinyl chloride, polyacrylonitrile, paper, foil, non-woven fabric, or combinations thereof; and wherein at least one of the compositions of the heat sealable layer or the structure layer has a melting point significantly higher than the degradation temperature of the pressure sensitive adhesive; and one face of the additional tie layer (e), if present, is in direct contact with the heat sealable layer (a) and the other face of the additional tie layer (e) is in direct contact with the pressure-sensitive adhesive layer (b).
A subsea intervention system comprising: at least one control station ; at least one programmable logic controller system in each control station ; at least one supervisory control and data acquisition system ; and at least one safety system separate from but capable of interacting with each control station; wherein the safety system comprises a redundant safety programmable logic controller system and is capable of controlling a process shutdown process, an emergency shutdown process, and an emergency quick-disconnect process. at least one control station ; at least one programmable logic controller system in each control station ; at least one supervisory control and data acquisition system ; and at least one safety system separate from but capable of interacting with each control station; wherein the safety system comprises a redundant safety programmable logic controller system and is capable of controlling a process shutdown process, an emergency shutdown process, and an emergency quick-disconnect process.
Method for controlling the rotary drive of a hot-moulding machine having a plurality of processing stations (20-23) which are arranged in a circular manner and a rotary table which is arranged thereabove and in which glass pipes which are intended to be processed are retained and are moved by a gradual rotary movement from one processing station (20-23) to the next, wherein the rotary table is driven by means of a stepping gear , by means of which a movement of a drive shaft is translated into a cyclical step movement whose step cycle comprises a movement phase and a subsequent stop phase , characterised in that the angular speed of the drive shaft at a first time in the movement phase of a step cycle assumes a first value and at a second time in the stop phase of the same step cycle assumes a second value which is different from the first value .
A pumping system for a fuel dispensing unit , comprising a first pumping unit configured to suck fuel from a fuel storage tank and comprising a first air separator for circulating a part of the fuel with low rate of gas toward a first fuel supply line and to evacuate a gas-enriched part of the fuel toward a first recovery chamber , a second pumping unit configured to suck fuel from the fuel storage tank and comprising a second air separator for circulating a part of the fuel with low rate of gas toward a second fuel supply line and to evacuate a gas-enriched part of the fuel toward a second recovery chamber , and a manifold comprising a fuel inlet connected to the fuel storage tank , a first fuel outlet connected to a first supply inlet of the first pumping unit , and a second fuel outlet connected to a second supply inlet of the second pumping unit , characterised in that the pumping system comprises an equalizer tube fluidly connecting the first recovery chamber and the second recovery chamber . a first pumping unit configured to suck fuel from a fuel storage tank and comprising a first air separator for circulating a part of the fuel with low rate of gas toward a first fuel supply line and to evacuate a gas-enriched part of the fuel toward a first recovery chamber , a second pumping unit configured to suck fuel from the fuel storage tank and comprising a second air separator for circulating a part of the fuel with low rate of gas toward a second fuel supply line and to evacuate a gas-enriched part of the fuel toward a second recovery chamber , and a manifold comprising a fuel inlet connected to the fuel storage tank , a first fuel outlet connected to a first supply inlet of the first pumping unit , and a second fuel outlet connected to a second supply inlet of the second pumping unit , characterised in that the pumping system comprises an equalizer tube fluidly connecting the first recovery chamber and the second recovery chamber .
A kit for the therapeutic treatment of breast cancer, comprising: a) ( S )-2-((2-(( S )-4-(difluoromethyl)-2-oxooxazolidin-3-yl)-5,6-dihydrobenzo[ f ]imidazo[1,2- d ] oxazepin-9-yl)amino)propanamide having the structure and b) instructions for use in the therapeutic treatment of breast cancer, wherein the instructions for use indicate that the compound of a) is used for treating breast cancer. a) ( S )-2-((2-(( S )-4-(difluoromethyl)-2-oxooxazolidin-3-yl)-5,6-dihydrobenzo[ f ]imidazo[1,2- d ] oxazepin-9-yl)amino)propanamide having the structure and b) instructions for use in the therapeutic treatment of breast cancer, wherein the instructions for use indicate that the compound of a) is used for treating breast cancer.
A method comprising: at a computing device : determining, in a target computer that is remote from the computing device , a location where a known undesired computer program is configured to reside upon installation on the target computer by reading from a database attributes associated with the undesired computer program indicating the location; and providing, to the target computer , a data object to occupy the determined installation location of the undesired computer program in the target computer to prevent the undesired computer program from being installed in the determined installation location on the target computer . determining, in a target computer that is remote from the computing device , a location where a known undesired computer program is configured to reside upon installation on the target computer by reading from a database attributes associated with the undesired computer program indicating the location; and providing, to the target computer , a data object to occupy the determined installation location of the undesired computer program in the target computer to prevent the undesired computer program from being installed in the determined installation location on the target computer .
A stator for an aspiration motor , comprising: a stator support plate ; a support boss , vertically extended from the central portion of the stator support plate and defining a central hole for receiving a shaft of a rotor ; a bobbin formed on the lateral surface of the support boss , the bobbin comprising a flange extending laterally from the lateral surface of the support boss and being separated from the upper side surface of the stator support plate , providing a space between said bobbin flange and said upper side surface; a stator coil formed by a wire wound in said space, the stator support plate , the support boss and the bobbin being integrally formed; an axial bearing seat which is inserted into the stator support plate , and is located at the lower portion of the central hole which is formed in the support boss , to thereby isolate a sealing at the lower portion of the central hole ; a back yoke which is located on the outer circumference of the bearing seat and forms a magnetic circuit; a hall element which is set so as to be circumferentially shifted by 1/4 magnetic pole pitch from the corner of the back yoke and the magnetic boundary surface of the magnetic poles of the rotor magnet , and a sleeve which is installed in the inside of the central hole formed in the support boss and grease which is filled between the sleeve and the bearing seat . a stator support plate ; a support boss , vertically extended from the central portion of the stator support plate and defining a central hole for receiving a shaft of a rotor ; a bobbin formed on the lateral surface of the support boss , the bobbin comprising a flange extending laterally from the lateral surface of the support boss and being separated from the upper side surface of the stator support plate , providing a space between said bobbin flange and said upper side surface; a stator coil formed by a wire wound in said space, the stator support plate , the support boss and the bobbin being integrally formed; an axial bearing seat which is inserted into the stator support plate , and is located at the lower portion of the central hole which is formed in the support boss , to thereby isolate a sealing at the lower portion of the central hole ; a back yoke which is located on the outer circumference of the bearing seat and forms a magnetic circuit; a hall element which is set so as to be circumferentially shifted by 1/4 magnetic pole pitch from the corner of the back yoke and the magnetic boundary surface of the magnetic poles of the rotor magnet , and a sleeve which is installed in the inside of the central hole formed in the support boss and grease which is filled between the sleeve and the bearing seat .