mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement report reception method is carried out by a base station in a mobile communication system, the measurement report reception method comprising: identifying a discovery signal configuration of a neighbor cell , the discovery signal configuration including information on a period and an offset for measuring a discovery signal of the neighbor cell ; transmitting the discovery signal configuration to a terminal ; and receiving , from the terminal, the measurement report including a result of measurement on the discovery signal according to the discovery signal configuration, wherein the period is defined as a multiple of a radio frame of the mobile communication system and the offset is a relative timing for measuring the discovery signal in a serving cell of the terminal , and wherein the period and the offset indicates a radio frame of system frame number, SFN, n of the serving cell on which the terminal measures the discovery signal based on a formula SFN n mod the period = the offset to support cell search for the neighbor cell. identifying a discovery signal configuration of a neighbor cell , the discovery signal configuration including information on a period and an offset for measuring a discovery signal of the neighbor cell ; transmitting the discovery signal configuration to a terminal ; and receiving , from the terminal, the measurement report including a result of measurement on the discovery signal according to the discovery signal configuration, wherein the period is defined as a multiple of a radio frame of the mobile communication system and the offset is a relative timing for measuring the discovery signal in a serving cell of the terminal , and wherein the period and the offset indicates a radio frame of system frame number, SFN, n of the serving cell on which the terminal measures the discovery signal based on a formula SFN n mod the period = the offset to support cell search for the neighbor cell.
A teaching apparatus for a robot , which robot is configured to move a work object, the teaching apparatus comprising: a display section that is configured to display a screen; a display control unit for controlling the display section ; a computation section configured to compute a predetermined position and attitude of a control point (TCP) of a gripping portion (HND) of the robot , and an input reception section ; characterized in that the display control unit is configured to control the display section so as to - display a first screen (UI1, UI1-1) which is operable by a user by using the input reception section for operating the robot so as to move the work object into an imaging range of an imaging device ; - erase the first screen (UI1, UI1-1); and - display a second screen (UI2, UI2-1) which is operable by the user by using the input reception section for moving the work object so that the work object is aligned at a target position and attitude, and wherein the computation section is configured to compute the predetermined position and attitude by using a captured image obtained by the imaging device imaging the work object, and the target position and attitude. a display section that is configured to display a screen; a display control unit for controlling the display section ; a computation section configured to compute a predetermined position and attitude of a control point (TCP) of a gripping portion (HND) of the robot , and an input reception section ; characterized in that the display control unit is configured to control the display section so as to - display a first screen (UI1, UI1-1) which is operable by a user by using the input reception section for operating the robot so as to move the work object into an imaging range of an imaging device ; - erase the first screen (UI1, UI1-1); and - display a second screen (UI2, UI2-1) which is operable by the user by using the input reception section for moving the work object so that the work object is aligned at a target position and attitude, and - display a first screen (UI1, UI1-1) which is operable by a user by using the input reception section for operating the robot so as to move the work object into an imaging range of an imaging device ; - erase the first screen (UI1, UI1-1); and - display a second screen (UI2, UI2-1) which is operable by the user by using the input reception section for moving the work object so that the work object is aligned at a target position and attitude, and wherein the computation section is configured to compute the predetermined position and attitude by using a captured image obtained by the imaging device imaging the work object, and the target position and attitude.
A wind turbine blade extending longitudinally in a spanwise direction between a root end and a tip end , and transversely in a chordwise direction between a leading edge and a trailing edge , the wind turbine blade comprising: an outer shell defining a substantially hollow interior, a shear web arranged inside the outer shell and extending longitudinally in the spanwise direction, the shear web comprising an elongate web panel and a mounting flange extending along a longitudinal edge of the web panel, the mounting flange comprising an inboard end portion defining a root end of the mounting flange and an outboard portion defining a tip end of the mounting flange, the outboard portion extending along a majority of the length of the elongate web panel, wherein the inboard end portion of the mounting flange is bonded to an inner surface of the blade shell by a first adhesive , and the outboard portion of the mounting flange is bonded to the inner surface of the blade shell by a second adhesive , the first adhesive having a lower elastic modulus than the second adhesive, and/or wherein a chordwise width (X) of the inboard end portion of the mounting flange is enlarged in comparison to a chordwise width of the outboard portion (Y) of the mounting flange adjacent to the inboard end portion. an outer shell defining a substantially hollow interior, a shear web arranged inside the outer shell and extending longitudinally in the spanwise direction, the shear web comprising an elongate web panel and a mounting flange extending along a longitudinal edge of the web panel, the mounting flange comprising an inboard end portion defining a root end of the mounting flange and an outboard portion defining a tip end of the mounting flange, the outboard portion extending along a majority of the length of the elongate web panel, wherein the inboard end portion of the mounting flange is bonded to an inner surface of the blade shell by a first adhesive , and the outboard portion of the mounting flange is bonded to the inner surface of the blade shell by a second adhesive , the first adhesive having a lower elastic modulus than the second adhesive, and/or wherein a chordwise width (X) of the inboard end portion of the mounting flange is enlarged in comparison to a chordwise width of the outboard portion (Y) of the mounting flange adjacent to the inboard end portion.
A method of operating a virtual computing environment to provide packet enforcement using logical ports, the method comprising: in each of a first host computing system and second host computing system , maintaining a data plane forwarding configuration based on forwarding rules and logical port status information for virtual machines (120-125) in the virtual computing environment , wherein each virtual machine (120-125) is associated with a logical port in a logical network, the logical port having a logical port identifier specific to the logical network links of each of the virtual machines; in the first host computing system , identifying a packet to be transferred from a first virtual machine executing on the first host computing system to a second virtual machine executing on the second host computing system ; in the first host computing system , identifying a source logical port associated with the first virtual machine on the first host computing system ; in the first host computing system , transferring a communication to the second host computing system , wherein the communication encapsulates at least the packet and the source logical port identifier of the first virtual machine ; in the second host computing system , receiving the communication; and in the second host computing system , determining a forwarding action for the packet in the communication based at least on the source logical port identifer of the first virtual machine and the data plane forwarding configuration. in each of a first host computing system and second host computing system , maintaining a data plane forwarding configuration based on forwarding rules and logical port status information for virtual machines (120-125) in the virtual computing environment , wherein each virtual machine (120-125) is associated with a logical port in a logical network, the logical port having a logical port identifier specific to the logical network links of each of the virtual machines; in the first host computing system , identifying a packet to be transferred from a first virtual machine executing on the first host computing system to a second virtual machine executing on the second host computing system ; in the first host computing system , identifying a source logical port associated with the first virtual machine on the first host computing system ; in the first host computing system , transferring a communication to the second host computing system , wherein the communication encapsulates at least the packet and the source logical port identifier of the first virtual machine ; in the second host computing system , receiving the communication; and in the second host computing system , determining a forwarding action for the packet in the communication based at least on the source logical port identifer of the first virtual machine and the data plane forwarding configuration.
Air duct for motor vehicles, in particular for connecting a hot component to a cold component , first connecting means being provided at a first end of the duct for fixing the air duct in an airtight manner to a hot component , and second connecting means being provided at the second end of the duct for fixing the duct in an airtight manner to a cold component , wherein at least one flexible duct section is provided between the first and the second connecting means , and wherein the duct has a free duct cross-section, wherein support rings of a material which is dimensionally stable relative to the flexible duct material are provided, which surround the free duct cross-section and stabilize the flexible duct section in its cross-sectional shape, wherein the duct has a curvature, from which an inner curvature of the duct and an outer curvature of the duct result, CHARACTERIZED IN THAT the support rings have a smaller width in the longitudinal direction of the duct in the region of the inner curvature than in the region of the outer curvature of the duct.
A system, comprising: a database for storing an imprecise temporal expression model, wherein an imprecise temporal expression corresponds to a temporal expression that does not resolve to a precise time, and wherein the imprecise temporal expression model includes at least one probability distribution that indicates times to which a predetermined percentage of users indicate an imprecise temporal expression corresponds; a processor communicatively coupled to the database, and configured to: receive , from a client device , a user input; generate a prediction of one or more intervals of time to which the user input refers based upon the at least one probability distribution of the imprecise temporal expression model in the database, wherein the user input comprises at least one of an imprecise temporal element, a contextual text, and a time of interaction; associate the user input with the prediction; and provide the prediction to the client device . a database for storing an imprecise temporal expression model, wherein an imprecise temporal expression corresponds to a temporal expression that does not resolve to a precise time, and wherein the imprecise temporal expression model includes at least one probability distribution that indicates times to which a predetermined percentage of users indicate an imprecise temporal expression corresponds; a processor communicatively coupled to the database, and configured to: receive , from a client device , a user input; generate a prediction of one or more intervals of time to which the user input refers based upon the at least one probability distribution of the imprecise temporal expression model in the database, wherein the user input comprises at least one of an imprecise temporal element, a contextual text, and a time of interaction; associate the user input with the prediction; and provide the prediction to the client device . receive , from a client device , a user input; generate a prediction of one or more intervals of time to which the user input refers based upon the at least one probability distribution of the imprecise temporal expression model in the database, wherein the user input comprises at least one of an imprecise temporal element, a contextual text, and a time of interaction; associate the user input with the prediction; and provide the prediction to the client device .
A combination of a protective element (E) and at least one mini riser sleeve which comprises a linear cavity through which a fluid material can be passed for the feeding process, at least one outer wall , at least one base , and at least one opening located at the base and providing the cavity to communicate with the outer environment, characterized in that said protective element (E) comprises; • at least one bottom wall suitable for receiving the base of the mini riser sleeve and being made of a more flexible material than the mini riser sleeve , wherein said bottom wall is made of ceramic fibre; • at least one side wall suitable for receiving the outer wall of the mini riser sleeve and being made of a more flexible material than the mini riser sleeve , wherein said side wall is made of ceramic fibre; • at least one aperture located at said bottom wall and allowing a fluid passage between the opening and the outer environment. • at least one bottom wall suitable for receiving the base of the mini riser sleeve and being made of a more flexible material than the mini riser sleeve , wherein said bottom wall is made of ceramic fibre; • at least one side wall suitable for receiving the outer wall of the mini riser sleeve and being made of a more flexible material than the mini riser sleeve , wherein said side wall is made of ceramic fibre; • at least one aperture located at said bottom wall and allowing a fluid passage between the opening and the outer environment.
A measurement module for minimizing harmonic distortion, comprising: at least one processor ; at least one memory including computer program code, wherein the computer program code, when executed by operation of the at least one processor , causes the measurement module to perform an operation comprising: sampling, at a first sampling rate, a first current measurement of a source current using a current sensor of the measurement module ; sampling, at a second sampling rate higher than the first sampling rate, for an interval of time, a second current measurement of the source current using the current sensor of the measurement module ; determining a harmonic compensation factor based at least in part on a difference between the first current measurement and the second current measurement; and applying the determined harmonic compensation factor to a third current measurement collected by the current sensor of the measurement module . at least one processor ; at least one memory including computer program code, wherein the computer program code, when executed by operation of the at least one processor , causes the measurement module to perform an operation comprising: sampling, at a first sampling rate, a first current measurement of a source current using a current sensor of the measurement module ; sampling, at a second sampling rate higher than the first sampling rate, for an interval of time, a second current measurement of the source current using the current sensor of the measurement module ; determining a harmonic compensation factor based at least in part on a difference between the first current measurement and the second current measurement; and applying the determined harmonic compensation factor to a third current measurement collected by the current sensor of the measurement module . sampling, at a first sampling rate, a first current measurement of a source current using a current sensor of the measurement module ; sampling, at a second sampling rate higher than the first sampling rate, for an interval of time, a second current measurement of the source current using the current sensor of the measurement module ; determining a harmonic compensation factor based at least in part on a difference between the first current measurement and the second current measurement; and applying the determined harmonic compensation factor to a third current measurement collected by the current sensor of the measurement module .
A control apparatus for a multi-cylinder internal combustion engine including a plurality of cylinders, the control apparatus comprising a controller that corrects a target air fuel ratio for an air-fuel ratio feedback control on the basis of an operation angle of an intake valve of each of the cylinders wherein a number of sensors provided in the internal combustion engine for detecting an air-fuel ratio or an oxygen concentration is smaller than a number of the cylinders of the internal combustion engine , characterized in that the controller: calculates a target air-fuel ratio on the basis of an average air-fuel ratio calculated by adding up air-fuel ratios for each of the cylinders and dividing the sum by the number of the plurality of cylinders , when a variation in the air-fuel ratio among the plurality of cylinders is detected ; calculates a relationship between the target air-fuel ratio and the operation angle of the intake valve on the basis of the calculated target air-fuel ratio and the operation angle of the intake valve obtained upon detection of the variation in the air-fuel ratio ; corrects the target air-fuel ratio when the operation angle of the intake valve is changed on the basis of the changed operation angle of the intake valve and the calculated relationship between the target air-fuel ratio and the operation angle of the intake valve of the cylinder ; and corrects a fuel injection quantity for all of the cylinders uniformly, based on the corrected target air-fuel ratio . calculates a target air-fuel ratio on the basis of an average air-fuel ratio calculated by adding up air-fuel ratios for each of the cylinders and dividing the sum by the number of the plurality of cylinders , when a variation in the air-fuel ratio among the plurality of cylinders is detected ; calculates a relationship between the target air-fuel ratio and the operation angle of the intake valve on the basis of the calculated target air-fuel ratio and the operation angle of the intake valve obtained upon detection of the variation in the air-fuel ratio ; corrects the target air-fuel ratio when the operation angle of the intake valve is changed on the basis of the changed operation angle of the intake valve and the calculated relationship between the target air-fuel ratio and the operation angle of the intake valve of the cylinder ; and corrects a fuel injection quantity for all of the cylinders uniformly, based on the corrected target air-fuel ratio .
A system for transforming a data stream into a flat format, comprising: a composite stream transformation component that pulls an available portion of the data stream from a component exposing the data stream and interprets the data stream one element at a time until consuming a stop element, transforms the data stream into a flat format, the data stream being hierarchical having a plurality of tags indicating starting and ending of elements, wherein a plurality of tags are specified as stop elements, wherein the composite stream transformation component executes a callback function when the stop elements are hit, the callback function transforms a subset of the portion of the data stream into the flat format and outputs the subset in the flat format to a data stream store; and the data stream store storing the transformed subset in the flat format, wherein the hierarchy of the data stream is preserved by storing relationship related information. a composite stream transformation component that pulls an available portion of the data stream from a component exposing the data stream and interprets the data stream one element at a time until consuming a stop element, transforms the data stream into a flat format, the data stream being hierarchical having a plurality of tags indicating starting and ending of elements, wherein a plurality of tags are specified as stop elements, wherein the composite stream transformation component executes a callback function when the stop elements are hit, the callback function transforms a subset of the portion of the data stream into the flat format and outputs the subset in the flat format to a data stream store; and the data stream store storing the transformed subset in the flat format, wherein the hierarchy of the data stream is preserved by storing relationship related information.
A culture medium for growth of epithelial cells capable of being used to manufacture regenerated hair follicle germs, the culture medium comprising basal medium and at least through , below: at least one species of bone morphogenetic protein (BMP) inhibitor; at least one species of fibroblast growth factor; and at least one species of sonic hedgehog (SHH) and/or SHH agonist. at least one species of bone morphogenetic protein (BMP) inhibitor; at least one species of fibroblast growth factor; and at least one species of sonic hedgehog (SHH) and/or SHH agonist.