mhurhangee/patent-ind-claim-en huggingface dataset:
A packet sending method, comprising: obtaining (S301, S302), by a controller, a forwarding latency requirement of a service flow, and determining (S303), based on the forwarding latency requirement, a forwarding path for forwarding the service flow, wherein a latency of the forwarding path meets the forwarding latency requirement of the service flow, the forwarding path passes through a first network node and a second network node; determining (S306), by the controller, a number of a first cycle time in which the first network node forwards a packet and a number of a second cycle time in which the second network node forwards the packet, wherein the packet is a packet in the service flow; generating (S307), by the controller, a first entry and a second entry, wherein the first entry comprises a correspondence between a sequence number of the packet and the first cycle time number, and the second entry comprises a correspondence between the sequence number of the packet and the second cycle time number; sending (S308), by the controller, the first entry to the first network node, wherein the first entry is used to indicate the first network node to send the packet in a time period corresponding to the first cycle time number; and sending, by the controller (S309), the second entry to the second network node, wherein the second entry is used to indicate the second network node to send the packet in a time period corresponding to the second cycle time number. obtaining (S301, S302), by a controller, a forwarding latency requirement of a service flow, and determining (S303), based on the forwarding latency requirement, a forwarding path for forwarding the service flow, wherein a latency of the forwarding path meets the forwarding latency requirement of the service flow, the forwarding path passes through a first network node and a second network node; determining (S306), by the controller, a number of a first cycle time in which the first network node forwards a packet and a number of a second cycle time in which the second network node forwards the packet, wherein the packet is a packet in the service flow; generating (S307), by the controller, a first entry and a second entry, wherein the first entry comprises a correspondence between a sequence number of the packet and the first cycle time number, and the second entry comprises a correspondence between the sequence number of the packet and the second cycle time number; sending (S308), by the controller, the first entry to the first network node, wherein the first entry is used to indicate the first network node to send the packet in a time period corresponding to the first cycle time number; and sending, by the controller (S309), the second entry to the second network node, wherein the second entry is used to indicate the second network node to send the packet in a time period corresponding to the second cycle time number.
Motorised vehicle intended to transport a load comprising at least three drive wheels intended to run along the floor, capable of pivoting at least 90°, said drive wheels being mounted on pivoting and driving devices attached to the chassis of the vehicle, each of the pivoting and driving devices comprising a motor for actuating means for pivoting a drive wheel about a vertical axis, intended to make it possible to pivot a drive wheel about itself, said motorised vehicle comprising a single motor for driving in rotation said drive wheels intended to actuate the means for driving in rotation said drive wheels housed in said pivoting and driving devices.
Yarn brake having a first disk , a second disk , a disk carrier and a tensioning device which applies a force to the first disk in the direction of the second disk , the first disk and the second disk being arranged on an eyelet carrier , which has a yarn guide eyelet through which a yarn path runs, characterized in that the two discs are arranged between the disc carrier and a projection on the eyelet carrier .
A method of handling a wind turbine component for assembly or maintenance, the method comprising: coupling one or more crane with the wind turbine component so that at least a portion of the weight of the wind turbine component can be supported and lifted by the one or more crane , wherein the one or more crane is mounted to the wind turbine , and wherein the crane is mounted to a nacelle of the wind turbine ; Characterized in that, the method comprising: coupling one or more unmanned air vehicle with the wind turbine component so that at least a portion of the weight of the wind turbine component can be supported and lifted by the one or more unmanned air vehicle ; controlling the one or more unmanned air vehicle and crane in coordination to lift the wind turbine component and manoeuvre said component with respect to a wind turbine , wherein the one or more crane is attached to the component at a first position and the one or more unmanned air vehicle is attached to the component at a second position spaced from the first position. coupling one or more crane with the wind turbine component so that at least a portion of the weight of the wind turbine component can be supported and lifted by the one or more crane , wherein the one or more crane is mounted to the wind turbine , and wherein the crane is mounted to a nacelle of the wind turbine ; Characterized in that, the method comprising: coupling one or more unmanned air vehicle with the wind turbine component so that at least a portion of the weight of the wind turbine component can be supported and lifted by the one or more unmanned air vehicle ; controlling the one or more unmanned air vehicle and crane in coordination to lift the wind turbine component and manoeuvre said component with respect to a wind turbine , wherein the one or more crane is attached to the component at a first position and the one or more unmanned air vehicle is attached to the component at a second position spaced from the first position. coupling one or more unmanned air vehicle with the wind turbine component so that at least a portion of the weight of the wind turbine component can be supported and lifted by the one or more unmanned air vehicle ; controlling the one or more unmanned air vehicle and crane in coordination to lift the wind turbine component and manoeuvre said component with respect to a wind turbine , wherein the one or more crane is attached to the component at a first position and the one or more unmanned air vehicle is attached to the component at a second position spaced from the first position.
A method comprising: setting a DSL transmitter in a power-saving state; transmitting in the power-saving state first signals for updating a far-end crosstalk parameter from the DSL transmitter to a DSL receiver during first time intervals; and transmitting in the power-saving state no signals from the DSL transmitter to the DSL receiver during second time intervals, characterized in that the first signals comprise test signals for updating far-end crosstalk parameters. setting a DSL transmitter in a power-saving state; transmitting in the power-saving state first signals for updating a far-end crosstalk parameter from the DSL transmitter to a DSL receiver during first time intervals; and transmitting in the power-saving state no signals from the DSL transmitter to the DSL receiver during second time intervals, characterized in that the first signals comprise test signals for updating far-end crosstalk parameters.
A component mounting device comprising: a head main body ; a shaft provided on the head main body so as to be lifted and lowered; a sleeve provided so as to be movable relative to the shaft in a vertical direction; a component holding section ; a first elastic member configured to bias the sleeve positioned at a lower end of the shaft toward a lower side in the vertical direction; and a second elastic member configured to bias the component holding section positioned at a lower end of the sleeve toward the lower side, characterized in that the component holding section is provided so as to be movable relative to the sleeve in the vertical direction, the biasing force of the second elastic member is smaller than the biasing force of the first elastic member , a detecting section is provided that is configured to detect whether the sleeve has moved relative to the shaft when a component held by the component holding section is mounted on a board by lifting and lowering the shaft , and a controller is provided that is configured to determine an abnormal state of movement resistance in case of a relative movement between the sleeve and the shaft against the biasing force of the first elastic member when the component is mounted on the board . a head main body ; a shaft provided on the head main body so as to be lifted and lowered; a sleeve provided so as to be movable relative to the shaft in a vertical direction; a component holding section ; a first elastic member configured to bias the sleeve positioned at a lower end of the shaft toward a lower side in the vertical direction; and a second elastic member configured to bias the component holding section positioned at a lower end of the sleeve toward the lower side, characterized in that the component holding section is provided so as to be movable relative to the sleeve in the vertical direction, the biasing force of the second elastic member is smaller than the biasing force of the first elastic member , a detecting section is provided that is configured to detect whether the sleeve has moved relative to the shaft when a component held by the component holding section is mounted on a board by lifting and lowering the shaft , and a controller is provided that is configured to determine an abnormal state of movement resistance in case of a relative movement between the sleeve and the shaft against the biasing force of the first elastic member when the component is mounted on the board .
A method for producing 2-methoxyacetic acid by oxidizing 2-methoxyethanol in a reaction device using oxygen at a temperature of 20 to 100°C and an oxygen partial pressure of 0.01 to 2 MPa in the presence of water and a heterogeneous catalyst containing platinum, wherein the method is carried out semi-continuously or continuously and wherein the addition of 2-methoxyethanol to the reaction device is temporally and spatially selected such that temporally and spatially, in the liquid phase containing 2-methoxyethanol and 2-methoxyacetic acid in the reaction device, the quotient of CR/CA is constantly ≤ 0.80, wherein CR is defined as CR = C 2 − methoxyethanol reactor C 2 − methoxyethanol reactor + C water reactor , and wherein C(2-methoxyethanol reactor) denotes the mass of 2-methoxyethanol per volume element of the liquid phase containing 2-methoxyethanol and 2-methoxyacetic acid, and C(water reactor) denotes the mass of water per volume element of the liquid phase containing 2-methoxyethanol and 2-methoxyacetic acid, in the semi-continuous method, CA is defined as CA = MT 2 − methoxyethanol total mass MT 2 − methoxyethanol total mass + MT water total mass , wherein MT(2-methoxyethanol total mass) denotes the total mass of 2-methoxyethanol used in the semi-continuous method, and MT(water total mass) denotes the total mass of water used in the semi-continuous method, and in the continuous method, CA is defined as CA = MF 2 − methoxyethanol mass flow MF 2 − methoxyethanol mass flow + MF water mass flow , wherein MF(2-methoxyethanol mass flow) denotes the mass flow of 2-methoxyethanol supplied to the reaction device, and MF(water mass flow) denotes the mass flow of water supplied to the reaction device.
A turbine blade comprising: an airfoil including a pressure side and a suction side ; a platform including a pressure side wall and a suction side wall and having a leading edge end wall and a trailing edge end wall ; a suction pocket positioned under the platform on the suction side; the suction pocket including a platform underside , and a fillet connecting said platform underside into a neck , said neck extending into a fir tree ; and there being on the suction side at least three cooling holes, with a first cooling hole extending from a first end in said platform underside to a second end in a top surface of said platform along a direction (X) having a component toward said suction side wall , and having a component towards said trailing edge end wall , there being a second cooling hole extending from a first end in said platform underside , but closer to said fillet than is said first end of said first cooling hole , to a second end in said top surface along a direction (Y) having a component toward said pressure side end wall and a component toward said trailing edge, there being a third cooling hole having a first end in said fillet and extending to a second end at said top surface along a direction (Z 1 ) and having a component toward said pressure side end wall and another component towards said trailing edge end wall . an airfoil including a pressure side and a suction side ; a platform including a pressure side wall and a suction side wall and having a leading edge end wall and a trailing edge end wall ; a suction pocket positioned under the platform on the suction side; the suction pocket including a platform underside , and a fillet connecting said platform underside into a neck , said neck extending into a fir tree ; and there being on the suction side at least three cooling holes, with a first cooling hole extending from a first end in said platform underside to a second end in a top surface of said platform along a direction (X) having a component toward said suction side wall , and having a component towards said trailing edge end wall , there being a second cooling hole extending from a first end in said platform underside , but closer to said fillet than is said first end of said first cooling hole , to a second end in said top surface along a direction (Y) having a component toward said pressure side end wall and a component toward said trailing edge, there being a third cooling hole having a first end in said fillet and extending to a second end at said top surface along a direction (Z 1 ) and having a component toward said pressure side end wall and another component towards said trailing edge end wall .
A compound that is d-cis -3-(4-hydroxyphenyl)-4-(4-hydroxyphenyl)-8-methylchroman-7-ol, for use in a method of treatment of breast cancer, wherein the treatment further comprises administration of a glycolytic inhibitor, wherein the glycolytic inhibitor is: nintedanib, dovitinib, regorafenib, or bevacizumab.
A supercharge air cooling unit comprising: an evaporator portion in which heat exchange is conducted between supercharging air to be supplied from a supercharger to an engine and working medium to evaporate the working medium; an expander into which the working medium evaporated in the evaporator portion flows; a motive power recovery device which recovers motive power of the expander ; and a gas cooler portion in which heat exchange is conducted between the supercharged air cooled by the evaporator portion and cooling medium to further cool the supercharged air, characterised in that a flow path of the supercharged air in the evaporator portion is formed to have a width larger than a width of a flow path of the supercharged air in the gas cooler portion , thereby a stepped portion being formed in the flow path of the supercharged air in the evaporator portion , and the evaporator portion is configured such that a flow rate of the working medium passing through a first region as a region expanded by the stepped portion is smaller than a flow rate of the working medium passing through a second region as a region other than the first region in the evaporator portion , or such that in the first region , the working medium does not pass through. an evaporator portion in which heat exchange is conducted between supercharging air to be supplied from a supercharger to an engine and working medium to evaporate the working medium; an expander into which the working medium evaporated in the evaporator portion flows; a motive power recovery device which recovers motive power of the expander ; and a gas cooler portion in which heat exchange is conducted between the supercharged air cooled by the evaporator portion and cooling medium to further cool the supercharged air, characterised in that a flow path of the supercharged air in the evaporator portion is formed to have a width larger than a width of a flow path of the supercharged air in the gas cooler portion , thereby a stepped portion being formed in the flow path of the supercharged air in the evaporator portion , and the evaporator portion is configured such that a flow rate of the working medium passing through a first region as a region expanded by the stepped portion is smaller than a flow rate of the working medium passing through a second region as a region other than the first region in the evaporator portion , or such that in the first region , the working medium does not pass through.
Drain and overflow fitting for a bathtub, having a drain housing which comprises an inlet opening , at least one overflow connection (2.7), and a laterally projecting drain conduit (2.1), wherein the drain conduit defines an odour trap and a drain connection (2.2) is arranged at the end of the drain conduit (2.1), wherein a liftable and lowerable drain valve body and a drain valve mechanism are integrated in the drain housing , and wherein the drain valve mechanism comprises a force transmission means for lifting the drain valve body , wherein the drain housing comprises a first guide (2.3) in which the force transmission means is displaceably guided, wherein the force transmission means cooperates with a vertically movable bolt in such a way that the bolt is raised or lowered when the force transmission means is displaced, and wherein the bolt is connected to the drain valve body or cooperates with the drain valve body , wherein the drain housing comprises a second guide (2.5) in which the bolt is vertically displaceably guided, wherein the second guide (2.5) comprises a sleeve-shaped section for receiving the bolt , characterized in that the sleeve-shaped section projects upwards relative to the lowest point of the inner surface of the overflow connection (2.7) and is fastened with its lower end to the first guide (2.3), and wherein the force transmission means comprises an inclined or curved support path on which the vertically movable bolt is supported in such a way that the bolt is raised or lowered when the force transmission means is displaced. having a drain housing which comprises an inlet opening , at least one overflow connection (2.7), and a laterally projecting drain conduit (2.1), wherein the drain conduit defines an odour trap and a drain connection (2.2) is arranged at the end of the drain conduit (2.1), wherein a liftable and lowerable drain valve body and a drain valve mechanism are integrated in the drain housing , and wherein the drain valve mechanism comprises a force transmission means for lifting the drain valve body , wherein the drain housing comprises a first guide (2.3) in which the force transmission means is displaceably guided, wherein the force transmission means cooperates with a vertically movable bolt in such a way that the bolt is raised or lowered when the force transmission means is displaced, and wherein the bolt is connected to the drain valve body or cooperates with the drain valve body , wherein the drain housing comprises a second guide (2.5) in which the bolt is vertically displaceably guided, wherein the second guide (2.5) comprises a sleeve-shaped section for receiving the bolt , characterized in that the sleeve-shaped section projects upwards relative to the lowest point of the inner surface of the overflow connection (2.7) and is fastened with its lower end to the first guide (2.3), and wherein the force transmission means comprises an inclined or curved support path on which the vertically movable bolt is supported in such a way that the bolt is raised or lowered when the force transmission means is displaced.
A method for providing energy storage devices positioned in a device-exchange station , the method comprising: receiving a request for retrieving two energy storage devices in the device-exchange station ; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices ; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices ; and releasing the first and second energy storage devices ; wherein the characteristic information of the first and the second energy storage devices are similar, the same, or substantially the same, and the characteristic information comprises at least one of a state of charge (SoC), a temperature and a battery type; and characterised in that the first energy storage device is positioned at a first location of the device-exchange station , and wherein the second energy storage device is positioned at a second location of the device-exchange station , and wherein the second location is a location closest to the first location among locations of the rest of the plurality of energy storage devices. receiving a request for retrieving two energy storage devices in the device-exchange station ; selecting a first energy storage device from a plurality of energy storage devices positioned in the device-exchange station based on characteristic information of each of the energy storage devices ; selecting a second energy storage device from the rest of the plurality of energy storage devices positioned in the device-exchange station based on the characteristic information of the first energy storage device and the rest of the plurality of energy storage devices ; and releasing the first and second energy storage devices ; wherein the characteristic information of the first and the second energy storage devices are similar, the same, or substantially the same, and the characteristic information comprises at least one of a state of charge (SoC), a temperature and a battery type; and characterised in that the first energy storage device is positioned at a first location of the device-exchange station , and wherein the second energy storage device is positioned at a second location of the device-exchange station , and wherein the second location is a location closest to the first location among locations of the rest of the plurality of energy storage devices.
A chirped pulse amplifier for a fiber optic system, the amplifier comprising: a mode-locked laser ; a polarization-maintaining device coupled to an output of the mode-locked laser; a pulse stretcher and an amplifier fiber coupled to a first output of the polarization-maintaining device ; a first pulse selector coupled to a second output of the polarization-maintaining device ; an amplifier coupled to the first pulse selector ; and a compressor coupled to an output of the amplifier . a mode-locked laser ; a polarization-maintaining device coupled to an output of the mode-locked laser; a pulse stretcher and an amplifier fiber coupled to a first output of the polarization-maintaining device ; a first pulse selector coupled to a second output of the polarization-maintaining device ; an amplifier coupled to the first pulse selector ; and a compressor coupled to an output of the amplifier .