mhurhangee/patent-ind-claim-en huggingface dataset:
A driver upgrade method for a network functions virtualization NFV architecture comprising at least a virtual network function VNF corresponding to a software implementation of network element functions and a network function virtualization infrastructure NFVI that is configured to convert a physical computing resource pool to a virtual computing resource pool in the NFV architecture, wherein the VNF further comprises a virtual function VF driver and the NFVI comprises a physical function PF driver that needs to be matched with VF driver of the VNF and the NFVI and the VNF are configured to evolve independently, the method comprising: receiving (S44), by network functions virtualization management and orchestration MANO , first information from the virtualized network function VNF during an upgrade of the VNF , wherein the first information is used to indicate version information of the VNF after the upgrade; determining, by the MANO , that a network functions virtualization infrastructure NFVI is not upgraded; and sending , by the MANO , second information to the VNF , wherein the second information is used to indicate the VNF not to upgrade the virtual function VF driver installed in the VNF so that the upgrade of the VNF can be independent of that of the VF driver, wherein, after the receiving, by MANO , first information from a VNF , the method further comprises: updating (S45), by the MANO , a matching relationship between a virtualized network function descriptor VNFD and the VNF , wherein the VNFD matches the VNF in the updated matching relationship. receiving (S44), by network functions virtualization management and orchestration MANO , first information from the virtualized network function VNF during an upgrade of the VNF , wherein the first information is used to indicate version information of the VNF after the upgrade; determining, by the MANO , that a network functions virtualization infrastructure NFVI is not upgraded; and sending , by the MANO , second information to the VNF , wherein the second information is used to indicate the VNF not to upgrade the virtual function VF driver installed in the VNF so that the upgrade of the VNF can be independent of that of the VF driver, wherein, after the receiving, by MANO , first information from a VNF , the method further comprises: updating (S45), by the MANO , a matching relationship between a virtualized network function descriptor VNFD and the VNF , wherein the VNFD matches the VNF in the updated matching relationship.
An agricultural combine comprising: a chassis configured for movement on a surface; an intermediate member movably connected to the chassis ; a header movably connected to the intermediate member ; a first actuator connecting the chassis to the intermediate member and configured to move the intermediate member relative to the chassis ; a second actuator connecting the header to the intermediate member and configured to move the header relative to the intermediate member ; a first gauge configured to measure a first force (F1) generated by the first actuator ; a second gauge configured to measure a second force (F2) generated by the second actuator ; and a processing unit operatively connected to the first gauge and to the second gauge and comprising a processor and a memory , characterized in that the memory stores computer readable instructions that, when executed by the processor , are configured to evaluate the first force (F1) and the second force (F2) to determine a position of a center of gravity of the header relative to the chassis . a chassis configured for movement on a surface; an intermediate member movably connected to the chassis ; a header movably connected to the intermediate member ; a first actuator connecting the chassis to the intermediate member and configured to move the intermediate member relative to the chassis ; a second actuator connecting the header to the intermediate member and configured to move the header relative to the intermediate member ; a first gauge configured to measure a first force (F1) generated by the first actuator ; a second gauge configured to measure a second force (F2) generated by the second actuator ; and a processing unit operatively connected to the first gauge and to the second gauge and comprising a processor and a memory , characterized in that the memory stores computer readable instructions that, when executed by the processor , are configured to evaluate the first force (F1) and the second force (F2) to determine a position of a center of gravity of the header relative to the chassis .
Magnetic resonance imaging system comprising a superconductive magnet with windings for generating a magnetic field, an emergency button and a circuitry logic for controlling the magnet coupled to the magnet and to the emergency button , wherein the magnet is operable in a superconducting state and in a normal conductivity state, respectively, and the emergency button and the circuitry logic are configured in such a way that, when the magnet is operated in the superconducting state, actuating the emergency button by a user in a predefined first way initiates ramping down the magnetic field while dissipating energy stored in the windings of the magnet to an external dissipation device , and actuating the emergency button by a user in a predefined second way which is different from the first way initiates quenching the magnetic field by heating up at least part of the windings of the magnet leading to a dissipation of energy stored in the windings of the magnet as additional heat to the magnet . the magnet is operable in a superconducting state and in a normal conductivity state, respectively, and the emergency button and the circuitry logic are configured in such a way that, when the magnet is operated in the superconducting state, actuating the emergency button by a user in a predefined first way initiates ramping down the magnetic field while dissipating energy stored in the windings of the magnet to an external dissipation device , and actuating the emergency button by a user in a predefined second way which is different from the first way initiates quenching the magnetic field by heating up at least part of the windings of the magnet leading to a dissipation of energy stored in the windings of the magnet as additional heat to the magnet .
Mirikizumab for use in the treatment of moderate to severe ulcerative colitis (UC), wherein the treatment comprises: a) administering three induction doses of mirikizumab to the patient at 4 week intervals, wherein each induction dose comprises 300 mg of mirikizumab, and wherein each induction dose is administered by intravenous infusion; and b) administering multiple maintenance doses of mirikizumab to the patient by subcutaneous injection, wherein the first maintenance dose is administered 2 to 8 weeks after the last induction dose is administered, wherein the maintenance dose comprises 200 mg of mirikizumab. a) administering three induction doses of mirikizumab to the patient at 4 week intervals, wherein each induction dose comprises 300 mg of mirikizumab, and wherein each induction dose is administered by intravenous infusion; and b) administering multiple maintenance doses of mirikizumab to the patient by subcutaneous injection, wherein the first maintenance dose is administered 2 to 8 weeks after the last induction dose is administered, wherein the maintenance dose comprises 200 mg of mirikizumab.
A method for monitoring at least one stability parameter of a loading crane mounted on a vehicle by means of a device, wherein during crane operation the vehicle is supported on the ground by means of wheels and by means of support elements separate from the wheels , characterized in that both contributions of the wheels and contributions of the support elements to a magnitude of the stability parameter are detected and said magnitude is compared to at least one predetermined limit value, wherein the device comprises wheel and support element measuring devices, by which both contributions of the wheels and contributions of the support elements to the magnitude of the at least one stability parameter can be detected, wherein the device comprises a control and regulating unit , to which measuring signals of the wheel and support element measuring devices can be fed, wherein a magnitude of the at least one stability parameter can be detected and can be compared to at least one predetermined limit value by the control and regulating unit , and in that a number (a) of the wheels and support elements , by means of which the vehicle is supported on the ground, is monitored as stability parameter, and in that a force-stability coefficient (S F ) is monitored as stability parameter, wherein the force-stability coefficient (S F ) is calculated from support forces ( F i ) provided by means of the wheels and the support elements , wherein the force stability coefficient (S F ) is calculated in accordance with the following formula: S F = ∑ i = 1 a ges F i ∑ i = 1 a min − 1 F i , max , wherein (a ges ) specifies a total number of the wheels and support elements , (a min ) specifies a predetermined minimum number of wheels and support elements , by means of which the vehicle must be supported at least on the ground, and (F i,max ) specifies the (a min -1) greatest support forces.
Method for operating a disinfection device comprising at least one UV-LED , comprising at least the following steps: - powering the at least one UV LED with a supply current, - providing a time signal, - operating the disinfecting device using the acquired time signal, - storing data in a control unit of the disinfection device, wherein the data reproduces at least one quantity of the light emitted by the at least one UV LED as a function of a supply current supplying the at least one UV LED . - powering the at least one UV LED with a supply current, - providing a time signal, - operating the disinfecting device using the acquired time signal, - storing data in a control unit of the disinfection device, wherein the data reproduces at least one quantity of the light emitted by the at least one UV LED as a function of a supply current supplying the at least one UV LED .
An injection molding machine , comprising: a motor ; a driver circuit that is adapted to drive the motor ; a rectifying part that is adapted to supply electric power to the driver circuit ; a capacitor provided between the driver circuit and the rectifying part and a controlling part , characterized by a bridge circuit that is adapted to convert direct electric power between the driver circuit and the rectifying part into alternating electric power; a harmonics component reducing part connected to an alternating side of the bridge circuit ; a regenerative line connected to the rectifying part in parallel, wherein the bridge circuit and the harmonics component reducing part are provided in the regenerative line ; and in that the controlling part is configured to control switching operations of plural switching elements of the bridge circuit such that the switching elements are switched between ON state and OFF state such that electric power of the motor is regenerated when a voltage of the capacitor is greater than or equal to a predetermined value, and all the switching elements are turned off when the voltage of the capacitor is smaller than the predetermined value. a motor ; a driver circuit that is adapted to drive the motor ; a rectifying part that is adapted to supply electric power to the driver circuit ; a capacitor provided between the driver circuit and the rectifying part and a controlling part , characterized by a bridge circuit that is adapted to convert direct electric power between the driver circuit and the rectifying part into alternating electric power; a harmonics component reducing part connected to an alternating side of the bridge circuit ; a regenerative line connected to the rectifying part in parallel, wherein the bridge circuit and the harmonics component reducing part are provided in the regenerative line ; and in that the controlling part is configured to control switching operations of plural switching elements of the bridge circuit such that the switching elements are switched between ON state and OFF state such that electric power of the motor is regenerated when a voltage of the capacitor is greater than or equal to a predetermined value, and all the switching elements are turned off when the voltage of the capacitor is smaller than the predetermined value.
A ballistic collar comprising: a base having a body with a first side portion and a second side portion; a first arm extending along a first longitudinal contour towards the first side portion, the first arm comprising a first upper segment and a first lower segment , a first connection between the first upper segment and the first lower segment extends along a central connection; and a second arm extending along a second longitudinal contour towards the second side portion, the second arm comprising a second upper segment and a second lower segment , a second connection between the second proximal segment and the second distal segment extends along the central connection, each of the first arm , the second arm , and the base being movable relative to each other, wherein the central connection extends along a third connection between the first arm , the second arm , and the base ; wherein the angles between: the first upper segment and the first lower segment ; the second upper segment and the second lower segment ; and the base and one or more of the segments change based on a relative movement of one or more of the first upper segment , the first lower segment , the second upper segment , the second lower segment , and the base . a base having a body with a first side portion and a second side portion; a first arm extending along a first longitudinal contour towards the first side portion, the first arm comprising a first upper segment and a first lower segment , a first connection between the first upper segment and the first lower segment extends along a central connection; and a second arm extending along a second longitudinal contour towards the second side portion, the second arm comprising a second upper segment and a second lower segment , a second connection between the second proximal segment and the second distal segment extends along the central connection, each of the first arm , the second arm , and the base being movable relative to each other, wherein the central connection extends along a third connection between the first arm , the second arm , and the base ; wherein the angles between: the first upper segment and the first lower segment ; the second upper segment and the second lower segment ; and the base and one or more of the segments change based on a relative movement of one or more of the first upper segment , the first lower segment , the second upper segment , the second lower segment , and the base .
A water-based epoxy resin composition obtained by blending a water-based epoxy resin (A) and a curing agent composition (B) containing a reaction product (b1) of epichlorohydrin and an amine compound represented by the following formula , wherein the water-based epoxy resin composition having a content ratio of the component (A) and the component (B) defined as [number of epoxy groups in component (A) / number of active amine hydrogens in component (B)] of 1/0.8 to 1/0.5; and wherein the water-based epoxy resin composition further comprises a pigment (C): H 2 N-CH 2 -A-CH 2 -NH 2 wherein A is a 1,2-phenylene group, a 1,3-phenylene group, or a 1,4-phenylene group.
A method for wireless communication at a base station, comprising: identifying that data is available to be transmitted to a user equipment, UE, that is operating in a discontinuous reception, DRX, mode, characterized by : configuring a plurality of UE-specific reference signals for transmission to the UE, each UE-specific reference signal indicating a UE identifier and an availability of data for the UE; and transmitting , using a beam sweeping configuration, the plurality of UE-specific reference signals. identifying that data is available to be transmitted to a user equipment, UE, that is operating in a discontinuous reception, DRX, mode, characterized by : configuring a plurality of UE-specific reference signals for transmission to the UE, each UE-specific reference signal indicating a UE identifier and an availability of data for the UE; and transmitting , using a beam sweeping configuration, the plurality of UE-specific reference signals. configuring a plurality of UE-specific reference signals for transmission to the UE, each UE-specific reference signal indicating a UE identifier and an availability of data for the UE; and transmitting , using a beam sweeping configuration, the plurality of UE-specific reference signals.
An organic light-emitting device comprising an anode ; a cathode ; a charge transporting layer comprising a charge-transporting polymer doped with a phosphorescent light-emitting dopant between the anode and the cathode ; the device further comprising a light-emitting layer between the anode and the cathode , wherein: the x-coordinate value and / or the y-coordinate value of CIE(x,y) coordinates of light emitted from the device is no more than 0.05 from the respective x- or y-coordinate value of a control device in which the charge transporting layer is not doped with a light-emitting dopant; wherein the charge transporting layer is adjacent to the light-emitting layer ; and wherein the light-emitting dopant is a repeat unit in the main chain of the charge-transporting polymer or a side-group or end-group of the charge-transporting polymer; characterized in that the phosphorescent dopant is present in the charge-transporting layer in an amount no more than 0.75 mol%.
A variable frequency motor drive comprising a half-controlled thyristor rectifier for receiving AC input and for providing a dc output, wherein the rectifier comprises, for each phase of the AC input, a thyristor for controlling at least one phase leg of that phase; an inverter for providing an AC output from the rectifier dc output for driving a motor; control circuitry to control the application of the AC output to the motor, the control circuitry providing gating signals to the thyristors based on a firing angle; a dc link between the rectifier and the inverter, the dc link comprising a capacitor; wherein the rectifier is configured to charge the capacitor gradually; and a dynamic brake circuit including brake IGBTs and being configured to monitor voltage of the dc link and to fire the brake IGBTs when the DC link voltage rises too high; characterised in that : the control circuitry is configured to set the firing angle to a maximum predetermined value at the start of a pre-charge cycle, wherein the maximum predetermined value is set to 270 degrees, which represents the minimum voltage of each phase, the point at which no conduction is possible; and the control circuitry is further configured to decrease the firing angle over time to zero degrees, causing the dc output to increase until the capacitor is fully charged, wherein the pre-charge cycle begins when the AC input is provided, and the control circuitry is configured to synchronize with the supply voltage, phase, and phase rotation of the AC input to ensure the correct timing of the gate signals. the control circuitry is configured to set the firing angle to a maximum predetermined value at the start of a pre-charge cycle, wherein the maximum predetermined value is set to 270 degrees, which represents the minimum voltage of each phase, the point at which no conduction is possible; and the control circuitry is further configured to decrease the firing angle over time to zero degrees, causing the dc output to increase until the capacitor is fully charged, wherein the pre-charge cycle begins when the AC input is provided, and the control circuitry is configured to synchronize with the supply voltage, phase, and phase rotation of the AC input to ensure the correct timing of the gate signals.
A method for authenticating a mobility management entity, MME, for outbound roaming subscribers, the method comprising: maintaining a Diameter authentication information request/update location request, AIR/ULR, mapping database at a Diameter edge agent, DEA ; receiving, at the DEA , a Diameter authentication information request, AIR, message; determining, by the DEA , that the Diameter AIR message includes a visited public land mobile network identifier, VPLMN ID, not of record in the AIR/ULR mapping database at the DEA ; recording the VPLMN ID in the Diameter AIR/ULR mapping database at the DEA ; receiving, at the DEA , a first Diameter ULR message and reading a VPLMN ID in the first Diameter ULR message; determining that the VPLMN ID read from the first Diameter ULR message does not match the VPLMN ID recorded for a subscriber in the Diameter AIR/ULR mapping database at the DEA ; and in response to determining that the VPLMN ID does not match the VPLMN ID recorded for the subscriber in the Diameter AIR/ULR mapping database at the DEA , rejecting the first Diameter ULR message. maintaining a Diameter authentication information request/update location request, AIR/ULR, mapping database at a Diameter edge agent, DEA ; receiving, at the DEA , a Diameter authentication information request, AIR, message; determining, by the DEA , that the Diameter AIR message includes a visited public land mobile network identifier, VPLMN ID, not of record in the AIR/ULR mapping database at the DEA ; recording the VPLMN ID in the Diameter AIR/ULR mapping database at the DEA ; receiving, at the DEA , a first Diameter ULR message and reading a VPLMN ID in the first Diameter ULR message; determining that the VPLMN ID read from the first Diameter ULR message does not match the VPLMN ID recorded for a subscriber in the Diameter AIR/ULR mapping database at the DEA ; and in response to determining that the VPLMN ID does not match the VPLMN ID recorded for the subscriber in the Diameter AIR/ULR mapping database at the DEA , rejecting the first Diameter ULR message.
A reactive metal powder atomization manufacturing process comprising: mixing together an atomizing gas and one additive gas to obtain an atomization mixture, wherein the atomizing gas is argon and wherein the one additive gas is air or oxygen wherein air is present at a concentration of 80ppm or oxygen is present at a concentration of 50ppm in the atomization mixture; contacting a heated reactive metal source with said atomization mixture within a heat zone of an atomizer while atomizing said heated reactive metal source to produce a raw reactive metal powder having a surface layer thereon, wherein the raw reactive metal powder is Ti-6Al-4V sieving said raw reactive metal powder with said surface layer thereon to obtain a powder having a predetermined particle size; and stirring said powder having said predetermined particle size in distilled water or demineralized water, wherein said predetermined particle size consists of a particle size distribution of 15-45 μm, and wherein said process is a plasma atom ization process. mixing together an atomizing gas and one additive gas to obtain an atomization mixture, wherein the atomizing gas is argon and wherein the one additive gas is air or oxygen wherein air is present at a concentration of 80ppm or oxygen is present at a concentration of 50ppm in the atomization mixture; contacting a heated reactive metal source with said atomization mixture within a heat zone of an atomizer while atomizing said heated reactive metal source to produce a raw reactive metal powder having a surface layer thereon, wherein the raw reactive metal powder is Ti-6Al-4V sieving said raw reactive metal powder with said surface layer thereon to obtain a powder having a predetermined particle size; and stirring said powder having said predetermined particle size in distilled water or demineralized water, wherein said predetermined particle size consists of a particle size distribution of 15-45 μm, and wherein said process is a plasma atom ization process.