mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed within an Internet Protocol, IP, network, wherein the IP network is a border gateway protocol, BGP, routed network , the method comprising: provisioning a route injection server as an external BGP, eBGP, peer within a control plane or application layer of the BGP routed network ; receiving a request at the route injection server to inject a specified IP route to one or more nodes of the BGP routed network ; transmitting , from the route injection server to the one or more nodes of the BGP routed network , an UPDATE message that includes information identifying the specified IP route; examining the UPDATE message by each node of the one or more nodes , and by each of the one or more nodes that meets a specified route injection criteria defined by an entity that transmitted the request to the route injection server , installing the specified IP route in an associated routing table and advertising , by each of the one or more nodes that meets the specified route injection criteria and installed the specified IP route, the installed IP route to other nodes of the BGP routed network ; receiving , at the route injection server , an indication of the advertised IP route from at least one of the one or more nodes that installed the specific IP route in the associated routing table; and transmitting a notification from the route injection server to the entity that transmitted the request to the route injection server in response to receiving the indication of the advertised IP route, wherein the notification indicates the advertised IP route was successfully injected into the one or more nodes of the BGP routed network . provisioning a route injection server as an external BGP, eBGP, peer within a control plane or application layer of the BGP routed network ; receiving a request at the route injection server to inject a specified IP route to one or more nodes of the BGP routed network ; transmitting , from the route injection server to the one or more nodes of the BGP routed network , an UPDATE message that includes information identifying the specified IP route; examining the UPDATE message by each node of the one or more nodes , and by each of the one or more nodes that meets a specified route injection criteria defined by an entity that transmitted the request to the route injection server , installing the specified IP route in an associated routing table and advertising , by each of the one or more nodes that meets the specified route injection criteria and installed the specified IP route, the installed IP route to other nodes of the BGP routed network ; receiving , at the route injection server , an indication of the advertised IP route from at least one of the one or more nodes that installed the specific IP route in the associated routing table; and transmitting a notification from the route injection server to the entity that transmitted the request to the route injection server in response to receiving the indication of the advertised IP route, wherein the notification indicates the advertised IP route was successfully injected into the one or more nodes of the BGP routed network .
A method comprising measuring a number of gamma-ray counts in a gamma-ray sensitive detector that is placed outside a biological shield near a primary cooling circuit of a fission nuclear power plant so that maintenance of the detector is possible during normal operation of the fission nuclear power plant, and determining the thermal power of the fission nuclear power plant based on the number of gamma-ray counts measured in the gamma-ray sensitive detector .
An edge cloud broker, ECB, node for selecting edge cloud resources of a mobile edge computing, MEC, network , applicable to a user equipment, UE, accessing a fifth generation, 5G, network , the ECB node operable to: obtain, from an access and mobility management function, AMF, node of the 5G network via receiver , a UE's location, wherein the AMF node is in charge of UE access and mobility management; obtain, from a session management function, SMF, node of the 5G network via the receiver , an identifier of an edge cloud application that the UE requests, wherein the SMF node is in charge of session management for UE communications; obtain, from a MEC orchestrator node of the MEC network via the receiver , a location of each one or more edge cloud resources available to execute the edge cloud application, wherein the location of an edge cloud resource identifies an edge cloud point of presence, EC PoP, and wherein the MEC orchestrator node is in charge of the edge cloud application lifecycle management; obtain, from an application controller of an application provider domain via the receiver , requirements for the edge cloud application to be executed; select, based on at least the UE's location, the requirements for the edge cloud application to be executed, wherein these requirements comprise a QoS requirement to be notified to a policy control function, PCF, node and the location of each one or more edge cloud resources, an applicable edge cloud resource to execute the edge cloud application for the UE; and notify the MEC orchestrator node of the selected edge cloud resource. obtain, from an access and mobility management function, AMF, node of the 5G network via receiver , a UE's location, wherein the AMF node is in charge of UE access and mobility management; obtain, from a session management function, SMF, node of the 5G network via the receiver , an identifier of an edge cloud application that the UE requests, wherein the SMF node is in charge of session management for UE communications; obtain, from a MEC orchestrator node of the MEC network via the receiver , a location of each one or more edge cloud resources available to execute the edge cloud application, wherein the location of an edge cloud resource identifies an edge cloud point of presence, EC PoP, and wherein the MEC orchestrator node is in charge of the edge cloud application lifecycle management; obtain, from an application controller of an application provider domain via the receiver , requirements for the edge cloud application to be executed; select, based on at least the UE's location, the requirements for the edge cloud application to be executed, wherein these requirements comprise a QoS requirement to be notified to a policy control function, PCF, node and the location of each one or more edge cloud resources, an applicable edge cloud resource to execute the edge cloud application for the UE; and notify the MEC orchestrator node of the selected edge cloud resource.
A vehicle for transporting a long transport item , such as a blade for a wind turbine, comprising a front chassis section and a rear chassis section spaced apart therefrom in the longitudinal direction of the vehicle, wherein the front chassis section and the rear chassis section are connected to one another by means of a telescopic longitudinal member , characterized in that the front chassis section has a vertical member whose base is held between a front part and a rear part of the front chassis section and in whose upper region a pivotable adapter for receiving the transport item is rotatably supported.
Method for reconditioning a blade of a gas turbine plant ; the blade comprising an airfoil extending along a span wise direction (S) from a base to a tip ; the airfoil comprising an outer wall defining a leading edge , a trailing edge , a pressure side and a suction side ; the airfoil enclosing at least one cooling duct extending along the span wise direction (S) and fed, in use, with a cooling fluid; the tip being provided with a tip wall and with a rim following, at least in part, the tip cross sectional profile; the tip wall being provided with at least one first casting opening and the outer wall being provided with at least one first service opening arranged close to the respective first casting opening ; the first casting opening and the first service opening being closed with a first closing element ; the method comprising the step of • removing at least one first portion of the rim in the proximity of the first casting opening and the first service opening ; • removing at least one first portion of the tip wall comprising the at least one first casting opening and at least one portion of the outer wall comprising the at least one first service opening ; • rebuilding the at least one first portion of the outer wall removed without the at least one first service opening ; • rebuilding the at least one first portion of the tip wall removed without the at least one first casting opening ; • rebuilding the at least one first portion of the rim removed. • removing at least one first portion of the rim in the proximity of the first casting opening and the first service opening ; • removing at least one first portion of the tip wall comprising the at least one first casting opening and at least one portion of the outer wall comprising the at least one first service opening ; • rebuilding the at least one first portion of the outer wall removed without the at least one first service opening ; • rebuilding the at least one first portion of the tip wall removed without the at least one first casting opening ; • rebuilding the at least one first portion of the rim removed.
A method for measuring a stable isotope ratio of an amino acid, the method comprising: measuring a stable carbon isotope ratio (δ13C) of an amino acid contained in a sample by elemental analysis-stable isotope ratio mass spectrometry (EA-IRMS), wherein δ13C is not measured by gas chromatography-stable isotope ratio mass spectrometry (GC-IRMS); and measuring a stable nitrogen isotope ratio (δ15N) of the amino acid contained in the sample by GC-IRMS, wherein δ15N is not measured by EA-IRMS. measuring a stable carbon isotope ratio (δ13C) of an amino acid contained in a sample by elemental analysis-stable isotope ratio mass spectrometry (EA-IRMS), wherein δ13C is not measured by gas chromatography-stable isotope ratio mass spectrometry (GC-IRMS); and measuring a stable nitrogen isotope ratio (δ15N) of the amino acid contained in the sample by GC-IRMS, wherein δ15N is not measured by EA-IRMS.
A method for voiding a printed media in a batch printing run, the method comprising: identifying the printed media that is printed as part of the batch printing run as a failed printed media in an instance in which an assigned grade fails to satisfy a predetermined threshold; marking the printed media as the failed printed media; and in a sequential batch printing mode: marking , one or more subsequently printed media that were printed after the failed printed media, as additional failed printed media; and reprinting the failed printed media in a next available media after the one or more subsequently printed media. identifying the printed media that is printed as part of the batch printing run as a failed printed media in an instance in which an assigned grade fails to satisfy a predetermined threshold; marking the printed media as the failed printed media; and in a sequential batch printing mode: marking , one or more subsequently printed media that were printed after the failed printed media, as additional failed printed media; and reprinting the failed printed media in a next available media after the one or more subsequently printed media. marking , one or more subsequently printed media that were printed after the failed printed media, as additional failed printed media; and reprinting the failed printed media in a next available media after the one or more subsequently printed media.
A flow-control system comprising: a fluid reservoir configured to store a fluid ; a pressure accumulator in flow communication with and positioned downstream from the fluid reservoir; a loading zone configured to receive and fluidly couple to a flow cell having a biological or chemical sample, the loading zone being in flow communication with and positioned downstream from the pressure accumulator; and a system pump in flow communication with and positioned downstream from the loading zone, the system pump configured to induce a flow of the fluid from the fluid reservoir and through the pressure accumulator and the loading zone; wherein the pressure accumulator includes a wall actuator and an interior chamber that is defined by a movable chamber wall and has an operating volume, a processing unit configured to selectively control the system pump to induce flow of the fluid through the flow-control system and selectively control the pressure accumulator to assist the system pump in delivering the fluid to the flow cell ,wherein the processing unit is configured to control the wall actuator to selectively move the chamber wall and thereby change the operating volume of the interior chamber, the pressure accumulator being configured to receive fluid into the interior chamber from the fluid reservoir during a filling operation of the interior chamber , wherein the processing unit is configured to control the wall actuator to move the chamber wall to impart pressure on the fluid and drive the fluid toward the loading zone during a pressure-assist operation. a fluid reservoir configured to store a fluid ; a pressure accumulator in flow communication with and positioned downstream from the fluid reservoir; a loading zone configured to receive and fluidly couple to a flow cell having a biological or chemical sample, the loading zone being in flow communication with and positioned downstream from the pressure accumulator; and a system pump in flow communication with and positioned downstream from the loading zone, the system pump configured to induce a flow of the fluid from the fluid reservoir and through the pressure accumulator and the loading zone; wherein the pressure accumulator includes a wall actuator and an interior chamber that is defined by a movable chamber wall and has an operating volume, a processing unit configured to selectively control the system pump to induce flow of the fluid through the flow-control system and selectively control the pressure accumulator to assist the system pump in delivering the fluid to the flow cell ,wherein the processing unit is configured to control the wall actuator to selectively move the chamber wall and thereby change the operating volume of the interior chamber, the pressure accumulator being configured to receive fluid into the interior chamber from the fluid reservoir during a filling operation of the interior chamber , wherein the processing unit is configured to control the wall actuator to move the chamber wall to impart pressure on the fluid and drive the fluid toward the loading zone during a pressure-assist operation.
A method of operating and/or positioning a lance and nozzle assembly relative to a molten metal bath in a vessel , the method comprising: providing a first temperature sensor proximate to a tip of the lance and nozzle assembly, wherein the first temperature sensor is housed by the lance and nozzle assembly, wherein the first temperature sensor is configured to detect a temperature of the tip of the lance and nozzle assembly , and wherein the temperature is converted to tip temperature data; providing a second temperature sensor on or within the vessel , wherein the second temperature sensor is configured to detect a temperature of the molten metal bath , and wherein the temperature is converted to bath temperature data; transmitting the tip temperature data and the bath temperature data to a processing unit ; exchanging information between the processing unit and a process operations data module , wherein the information comprises the tip temperature data, the bath temperature data, and process operations data; mapping the tip temperature data and the bath temperature data to a corresponding active elevation of the lance and nozzle assembly; comparing the active elevation to a preferred elevation of the lance and nozzle assembly; and moving the lance and nozzle assembly from the active elevation to the preferred elevation. providing a first temperature sensor proximate to a tip of the lance and nozzle assembly, wherein the first temperature sensor is housed by the lance and nozzle assembly, wherein the first temperature sensor is configured to detect a temperature of the tip of the lance and nozzle assembly , and wherein the temperature is converted to tip temperature data; providing a second temperature sensor on or within the vessel , wherein the second temperature sensor is configured to detect a temperature of the molten metal bath , and wherein the temperature is converted to bath temperature data; transmitting the tip temperature data and the bath temperature data to a processing unit ; exchanging information between the processing unit and a process operations data module , wherein the information comprises the tip temperature data, the bath temperature data, and process operations data; mapping the tip temperature data and the bath temperature data to a corresponding active elevation of the lance and nozzle assembly; comparing the active elevation to a preferred elevation of the lance and nozzle assembly; and moving the lance and nozzle assembly from the active elevation to the preferred elevation.
A hydrogenated petroleum resin containing hydrogenated low-molecular weight material in an amount of 6 to 10% by mass, and having the content of a volatile organic compound component of less than 100 wt ppm determined as described in the specification, wherein the petroleum resin comprises a copolymer of a cyclopentadiene-based compound and a vinyl aromatic compound, and the hydrogenated low-molecular weight material has a molecular weight of 200 to 350. wherein the petroleum resin comprises a copolymer of a cyclopentadiene-based compound and a vinyl aromatic compound, and the hydrogenated low-molecular weight material has a molecular weight of 200 to 350.
Holographic display device incorporated in a timepiece device comprising at least one movable hand , having a light source at its peripheral end, and a watch glass , characterised in that said watch glass comprises at least one hologram at its periphery, said light source being arranged on the hand so that it illuminates from the rear said at least one hologram disposed on an internal face of said watch glass so as to reconstruct said hologram when the hand moves into a predetermined angular sector of the glass.
A reflectometry system for the analysis of faults in a transmission line into which a complex signal, generated then modulated, has been injected, said system comprising: - a means for measuring the modulated complex signal propagating in the transmission line, - a demodulator of the measured signal able to produce a demodulated complex signal, - a complex correlator configured for correlating the demodulated complex signal with a copy of the generated complex signal, in order to produce a first time-domain reflectogram corresponding to the real part of the complex correlation and a second time-domain reflectogram corresponding to the imaginary part of the complex correlation, - a module for joint analysis of the first time-domain reflectogram and of the second time-domain reflectogram for identifying the presence of faults in the transmission line. - a means for measuring the modulated complex signal propagating in the transmission line, - a demodulator of the measured signal able to produce a demodulated complex signal, - a complex correlator configured for correlating the demodulated complex signal with a copy of the generated complex signal, in order to produce a first time-domain reflectogram corresponding to the real part of the complex correlation and a second time-domain reflectogram corresponding to the imaginary part of the complex correlation, - a module for joint analysis of the first time-domain reflectogram and of the second time-domain reflectogram for identifying the presence of faults in the transmission line.
A polyamide resin comprising a diamine unit containing 70 mol% or more of a paraxylylenediamine unit and a dicarboxylic acid unit containing 70 mol% or more of a linear aliphatic dicarboxylic acid unit having from 6 to 18 carbon atoms, wherein the polyamide resin has a phosphorus atom concentration of from 50 to 1,000 ppm and a YI value of 10 or less in the color difference test in accordance with JIS-K-7105, and is obtainable by a production method which comprises a step of melt polycondensation of a diamine component containing 70 mol% or more of paraxylylenediamine and a dicarboxylic acid component containing 70 mol% or more of a linear aliphatic dicarboxylic acid having from 6 to 18 carbon atoms, in the presence of a phosphorus atom-containing compound (A) which is at least one selected from a group consisting of calcium hypophosphite, magnesium hypophosphite, calcium phosphite, and calcium dihydrogen phosphate.
A fitting arrangement for a leaf of a window, of a door or the like having a leaf part configured for attachment to the leaf and having a frame part configured for attachment to a fixed-position frame, wherein the leaf part and the frame part are pivotably coupled to one another about a pivot axis, and wherein the frame part and the leaf part are movable relative to one another for adjustment purposes in a direction (B1) in parallel with the pivot axis by means of a longitudinal adjustment mechanism of an adjustment unit; wherein the adjustment unit is arranged at the frame part or at the leaf part and cooperates with a slide which is movable for adjustment purposes; wherein the frame part and/or the leaf part is/are movable relative to the slide ; wherein the slide is associated with the frame part or with the leaf part and a tab is associated with the other part (14 or 12) and engages into the slide ; wherein the tab is displaceably arranged in a tab receiver of the slide in a direction (B2) perpendicular to the pivot axis; wherein the longitudinal adjustment mechanism has self-locking properties; and wherein the adjustment unit has a transverse adjustment mechanism which is designed such that the frame part and the leaf part are movable relative to one another for adjustment purposes in the direction (B2) perpendicular to the pivot axis, characterized in that the longitudinal adjustment mechanism comprises at least one worm gear ; and in that the transverse adjustment mechanism has a rotatable screw which directly cooperates with the tab .
Baking oven for preparing food, comprising a housing in which a baking chamber is provided, a first heating device , which is provided in the upper region of the baking chamber , a second heating device , which is provided in the lower region of the baking chamber , and a circulating air unit , the circulating air unit being provided at a first side wall (3.1) of the baking chamber , a fan motor (6.1) of the circulating air unit being integrated into a side region (2.1) of the housing , which is disposed behind a control unit (1.1) of the baking oven , the circulating air unit having a flow channel (6.4) and a fan wheel (6.1.1) driven by the fan motor (6.1), and the fan wheel (6.1.1) being provided in the flow channel (6.4), characterized in that the circulating air unit has an intermediate wall (6.5), a circumferential wall portion (6.6) projecting from the intermediate wall (6.5), by means of which the flow channel (6.4) is delimited, and in that an insulating material layer (6.7) is provided between the first side wall (3.1) of the baking chamber and the intermediate wall (6.5).