mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring a control plane function (1516, 1516A, 1516B) associated with a network slice (102, 104, 202, 302, 304, 402, 404, 502, 504) available on a network, the method comprising following steps: a management plane entity transmitting, to a policy control function (903, 1003), PCF, a policy (106, 108, 206, 306, 308, 406, 408, 506) related to network slice operations of the network slice and related to total available network slice resources for the network slice, the policy control function operative to apply the policy to configure control plane functions for that network slice; and the management plane entity is further operative for receiving network slice resource usage monitoring results, determining whether the network slice resource usage monitoring results violate the policy, and, if the network slice resource usage monitoring results violate the policy, triggering an update of the policy. a management plane entity transmitting, to a policy control function (903, 1003), PCF, a policy (106, 108, 206, 306, 308, 406, 408, 506) related to network slice operations of the network slice and related to total available network slice resources for the network slice, the policy control function operative to apply the policy to configure control plane functions for that network slice; and the management plane entity is further operative for receiving network slice resource usage monitoring results, determining whether the network slice resource usage monitoring results violate the policy, and, if the network slice resource usage monitoring results violate the policy, triggering an update of the policy.
A method for invoking an Oauth API, comprising: intercepting a client request message, allocating a customer serial number for a client, and storing the customer serial number; receiving an Oauth API invoking request carrying the customer serial number, wherein the Oauth API invoking request is sent by the client through invoking a client requesting Oauth API interface; authenticating Oauth API invoking according to the customer serial number carried by the Oauth API invoking request, and obtaining interface binding information corresponding to an Oauth API which is requested to be invoked after the authentication is passed; performing authorization and authentication according to the interface binding information, and obtaining an access token; injecting the access token into the Oauth API invoking request, and sending the Oauth API invoking request into which the access token is injected to an Oauth API provider, so that the Oauth API responds to the Oauth API invoking request into which the access token is injected, and returns Oauth API returned information; returning the Oauth API returned information to the client, so as to complete the Oauth API invoking. intercepting a client request message, allocating a customer serial number for a client, and storing the customer serial number; receiving an Oauth API invoking request carrying the customer serial number, wherein the Oauth API invoking request is sent by the client through invoking a client requesting Oauth API interface; authenticating Oauth API invoking according to the customer serial number carried by the Oauth API invoking request, and obtaining interface binding information corresponding to an Oauth API which is requested to be invoked after the authentication is passed; performing authorization and authentication according to the interface binding information, and obtaining an access token; injecting the access token into the Oauth API invoking request, and sending the Oauth API invoking request into which the access token is injected to an Oauth API provider, so that the Oauth API responds to the Oauth API invoking request into which the access token is injected, and returns Oauth API returned information; returning the Oauth API returned information to the client, so as to complete the Oauth API invoking.
A system, comprising: a rotary isobaric pressure exchanger, IPX, configured to exchange pressures between a first fluid and a second fluid, wherein the rotary IPX comprises a first casing and a rotor disposed in the first casing; a motor system configured to power the rotary IPX, wherein the motor system comprises a second casing, a motor disposed in the second casing, and a dielectric fluid disposed in the second casing; a shaft coupling the motor and the rotor; a shaft seal disposed about the shaft, wherein the shaft seal is configured to separate the first fluid and the dielectric fluid; and a pressure compensator configured to reduce a pressure differential across the shaft seal by balancing the pressures of the dielectric fluid and the first fluid. a rotary isobaric pressure exchanger, IPX, configured to exchange pressures between a first fluid and a second fluid, wherein the rotary IPX comprises a first casing and a rotor disposed in the first casing; a motor system configured to power the rotary IPX, wherein the motor system comprises a second casing, a motor disposed in the second casing, and a dielectric fluid disposed in the second casing; a shaft coupling the motor and the rotor; a shaft seal disposed about the shaft, wherein the shaft seal is configured to separate the first fluid and the dielectric fluid; and a pressure compensator configured to reduce a pressure differential across the shaft seal by balancing the pressures of the dielectric fluid and the first fluid.
A computer-implemented method employing at least one hardware implemented computer processor for controlling a grasp control system to assist an operator with a grasping movement task, the method comprising: operating the at least one hardware processor to execute program instructions for: monitoring movement intention signal of a grasping movement muscle of the operator; identifying a volitional operator input for the grasping movement task from the movement intention signal; operating a powered orthotic device (104, 700) based on the volitional operator input to perform the grasping movement task as a chain of motion primitives, wherein each motion primitive is a fundamental unit of grasping motion defined along a movement path with a single degree of freedom, the motion primitives being configured to be combined in parallel to form the chain of motion primitives. monitoring movement intention signal of a grasping movement muscle of the operator; identifying a volitional operator input for the grasping movement task from the movement intention signal; operating a powered orthotic device (104, 700) based on the volitional operator input to perform the grasping movement task as a chain of motion primitives, wherein each motion primitive is a fundamental unit of grasping motion defined along a movement path with a single degree of freedom, the motion primitives being configured to be combined in parallel to form the chain of motion primitives.
An electric power steering device comprising: a hollow first shaft; a second shaft which is arranged coaxially with the first shaft; and a torsion bar which includes a pair of coupling shaft portions (35a, 35b) provided at both axial end portions thereof and a spring shaft portion provided between the pair of coupling shaft portions (35a, 35b), and which is arranged at an inner diameter side of the first shaft, wherein one of the coupling shaft portions is coupled to the first shaft and the other of the coupling shaft portions is coupled to the second shaft, respectively, such that torque can be transmitted, wherein at least one of the coupling shaft portions (35a, 35b) is press-fitted into a coupling hole formed in a counter-shaft which is one of the first and second shafts, to which the one of the coupling shaft portions is to be coupled, wherein a steering force from a steering wheel is applied to either one of the first and second shafts, and wherein a buckling prevention member is fitted and supported or coupled and fixed on an outer peripheral surface of the spring shaft portion, and an outer peripheral surface of the buckling prevention member is positioned close to or in contact with an inner peripheral surface of the first shaft, characterized in that the buckling prevention member includes a cylindrical member which has a cut-out extending in parallel or inclined with respect to a center axis thereof formed at one position in a circumferential direction. a hollow first shaft; a second shaft which is arranged coaxially with the first shaft; and a torsion bar which includes a pair of coupling shaft portions (35a, 35b) provided at both axial end portions thereof and a spring shaft portion provided between the pair of coupling shaft portions (35a, 35b), and which is arranged at an inner diameter side of the first shaft, wherein one of the coupling shaft portions is coupled to the first shaft and the other of the coupling shaft portions is coupled to the second shaft, respectively, such that torque can be transmitted,
A composite material unit of the structure (SE1-ML-LinkerL-Ligand2-SE2), wherein ML is a Mechanical Ligand, a chemical entity that forms a mechanical bond with the structural entity SE1, where ML is not a nanotube, LinkerL is a chemical bond or entity that covalently links ML and Ligand2, Ligand2 is a chemical entity that is covalently linked to the structural entity SE2, or forms a mechanical bond with the structural entity SE2, and SE1 and SE2 are structural entities where SE1 is a carbon nanotube and ML is a covalently closed ring around said carbon nanotube, and where the structural entity SE2 is a polymer or the structural entity SE2 is a carbon nanotube. ML is a Mechanical Ligand, a chemical entity that forms a mechanical bond with the structural entity SE1, where ML is not a nanotube, LinkerL is a chemical bond or entity that covalently links ML and Ligand2, Ligand2 is a chemical entity that is covalently linked to the structural entity SE2, or forms a mechanical bond with the structural entity SE2, and SE1 and SE2 are structural entities where SE1 is a carbon nanotube and ML is a covalently closed ring around said carbon nanotube, and where the structural entity SE2 is a polymer or the structural entity SE2 is a carbon nanotube.
Chain hoist comprising an automatic hoist chain lubricating arrangement for lubricating the hoist chain (12, 14) included in said hoist supporting a load in which successive links of said chain (12, 14) are engaged and driven by a rotary drive member to raise and lower said load: said chain drive member having a circumferentially extending surface; a fixed structure extending over said drive member surface; characterized in that a hole formed in an upper part of said fixed structure and extending down to said circumferentially extending surface of said drive member, said hole having open lower and upper ends; and, that a body of a lubricating material slidably received in said hole so that gravity urges a lower end of said body to rub against said surface upon rotation of said rotary drive member, causing lubricant from said body to be rubbed off and onto said surface as said surface rotates past said stationary lower end of said lubricant body, lubricant from said body rubbed onto said surface and thereafter pushed laterally away from said body as said rubbed off lubricant accumulates and onto said chain links (12, 14) located adjacent said surface to thereby automatically lubricate said chain links (12, 14) during operation of said hoist and movement of said links of said chain (12, 14) past said end of said lubricant body. characterized in that a hole formed in an upper part of said fixed structure and extending down to said circumferentially extending surface of said drive member, said hole having open lower and upper ends; and, that a body of a lubricating material slidably received in said hole so that gravity urges a lower end of said body to rub against said surface upon rotation of said rotary drive member, causing lubricant from said body to be rubbed off and onto said surface as said surface rotates past said stationary lower end of said lubricant body, lubricant from said body rubbed onto said surface and thereafter pushed laterally away from said body as said rubbed off lubricant accumulates and onto said chain links (12, 14) located adjacent said surface to thereby automatically lubricate said chain links (12, 14) during operation of said hoist and movement of said links of said chain (12, 14) past said end of said lubricant body.
A method of wireless communication for a base station, comprising: configuring a plurality of channel measurement periods for an n number of user equipments, UEs; assigning identification values to the n UEs; determining a plurality of subsets of the n UEs based on a pattern, wherein the pattern indicates one or more of the n UEs included in a subset of the plurality of subsets based on the identification values, and wherein each of the n UEs is included in at least two different subsets with each subset of the at least two different subsets including a different set of UEs; and scheduling each of the plurality of subsets of the n UEs for transmission of a signal during a different channel measurement period of the plurality of channel measurement periods. configuring a plurality of channel measurement periods for an n number of user equipments, UEs; assigning identification values to the n UEs; determining a plurality of subsets of the n UEs based on a pattern, wherein the pattern indicates one or more of the n UEs included in a subset of the plurality of subsets based on the identification values, and wherein each of the n UEs is included in at least two different subsets with each subset of the at least two different subsets including a different set of UEs; and scheduling each of the plurality of subsets of the n UEs for transmission of a signal during a different channel measurement period of the plurality of channel measurement periods.
Granulated carbon black, characterized in that the APC value, measured at a transport velocity of 8 m/s and a solids loading of 27 g/kg, is less than or equal to 20% by weight and the 25 μm pressure filter value is less than 5 bar cm 2 /g.
A compound of formula I wherein Ph is phenyl; R 1 is C 3-7 cycloalkyl; R 2, R 3, R 4, R 5, and R 6 are each independently in each occurrence H or C 1-6 alkyl; or a pharmaceutically acceptable salt thereof. Ph is phenyl; R 1 is C 3-7 cycloalkyl; R 2, R 3, R 4, R 5, and R 6 are each independently in each occurrence H or C 1-6 alkyl; or a pharmaceutically acceptable salt thereof.
A radio frequency connector, comprising: an outer conductor having a hollow housing with outer electrical contacts at its ends; and an inner conductor comprising a central body configured to be installed inside the outer conductor and spaced from the outer conductor with an annular space therebetween; wherein in each end region of the central body of the inner conductor, an elastic connection assembly is provided for electrically connecting the central body to a component to be connected, the elastic connection assembly comprises a male joint and a female joint which mate with each other to form an abutment connection,, the male joint being provided on the central body, and the female joint arranged for being provided on a component to be connected, and the central body of the inner conductor is directly connectable to the component to be connected by means of the elastic connection assembly, without involving the outer conductor, characterized in that the male joint has elasticity in a radial direction in the area of the abutment connection, and wherein the female joint has a mating cavity and the male joint has a plurality of elastic strips spaced by a plurality of dividing grooves in the circumferential direction, each of the elastic strips curving outwards in the radial direction such that a circular bulge portion is formed as an abutment portion which is to be inserted into the mating cavity through its opening and form the abutment connection with an inner wall of the mating cavity. an outer conductor having a hollow housing with outer electrical contacts at its ends; and an inner conductor comprising a central body configured to be installed inside the outer conductor and spaced from the outer conductor with an annular space therebetween; wherein in each end region of the central body of the inner conductor, an elastic connection assembly is provided for electrically connecting the central body to a component to be connected, the elastic connection assembly comprises a male joint and a female joint which mate with each other to form an abutment connection,, the male joint being provided on the central body, and the female joint arranged for being provided on a component to be connected, and the central body of the inner conductor is directly connectable to the component to be connected by means of the elastic connection assembly, without involving the outer conductor, characterized in that the male joint has elasticity in a radial direction in the area of the abutment connection, and wherein the female joint has a mating cavity and the male joint has a plurality of elastic strips spaced by a plurality of dividing grooves in the circumferential direction, each of the elastic strips curving outwards in the radial direction such that a circular bulge portion is formed as an abutment portion which is to be inserted into the mating cavity through its opening and form the abutment connection with an inner wall of the mating cavity.
An electrosurgical system, comprising: an electrosurgical generator arranged to supply microwave energy and an electroporation signal; an electrosurgical instrument for inserting to a treatment region in biological tissue, the electrosurgical instrument comprising: a coaxial cable connected to the electrosurgical generator to receive the microwave energy and the electroporation signal, a rod-shaped radiating tip portion coupled to a distal end of the coaxial cable to receive the microwave energy and the electroporation signal, the radiating tip portion being configured to radiate the microwave energy from its distal end into the treatment region and to establish an electric field at its distal end using the electroporation signal to electroporate biological tissue in the treatment region, and a conduit configured to convey biological tissue away from the treatment region; and a cytometer in fluid communication with the conduit to receive biological tissue, the cytometer being configured to detect the presence of a first predetermined cell type in the received biological tissue. an electrosurgical generator arranged to supply microwave energy and an electroporation signal; an electrosurgical instrument for inserting to a treatment region in biological tissue, the electrosurgical instrument comprising: a coaxial cable connected to the electrosurgical generator to receive the microwave energy and the electroporation signal, a rod-shaped radiating tip portion coupled to a distal end of the coaxial cable to receive the microwave energy and the electroporation signal, the radiating tip portion being configured to radiate the microwave energy from its distal end into the treatment region and to establish an electric field at its distal end using the electroporation signal to electroporate biological tissue in the treatment region, and a conduit configured to convey biological tissue away from the treatment region; and a coaxial cable connected to the electrosurgical generator to receive the microwave energy and the electroporation signal, a rod-shaped radiating tip portion coupled to a distal end of the coaxial cable to receive the microwave energy and the electroporation signal, the radiating tip portion being configured to radiate the microwave energy from its distal end into the treatment region and to establish an electric field at its distal end using the electroporation signal to electroporate biological tissue in the treatment region, and a conduit configured to convey biological tissue away from the treatment region; and a cytometer in fluid communication with the conduit to receive biological tissue, the cytometer being configured to detect the presence of a first predetermined cell type in the received biological tissue.
An apparatus for quenching at least part of a superconductor composed of at least two coil portions (112, 114) configured to be powered in series in a superconducting state in reply to a quench signal to initiate a transition from said superconducting state into a normal-conducting state, the apparatus comprising: means for providing an alternating current of a predetermined strength and/or predetermined frequency to said at least part of said superconductor, wherein said means for providing said alternating current comprises a control terminal configured to receive said quench signal, wherein said means for providing said alternating current is configured to be activated in response of receiving said quench signal at said control terminal so that said alternating current flows through said at least part of said superconductor, wherein said predetermined strength and/or said pre-determined frequency is selected such that said transition from said superconducting state into a normal-conducting state is initiated, such that the apparatus is configured to initiate said transition primarily by the heat generated by the coupling losses in the superconductor due to said alternating current. means for providing an alternating current of a predetermined strength and/or predetermined frequency to said at least part of said superconductor, wherein said means for providing said alternating current comprises a control terminal configured to receive said quench signal, wherein said means for providing said alternating current is configured to be activated in response of receiving said quench signal at said control terminal so that said alternating current flows through said at least part of said superconductor, wherein said predetermined strength and/or said pre-determined frequency is selected such that said transition from said superconducting state into a normal-conducting state is initiated, such that the apparatus is configured to initiate said transition primarily by the heat generated by the coupling losses in the superconductor due to said alternating current.
A system on a module, comprising: a processor; a memory storing operating system, drivers, utilities, programme applications, data and/or data structures and other information in communication with the processor; a connector to provide an interface to a smart grid device wherein the connector is configured to provide an interface to components on a utility meter, and wherein the processor is arranged to access the memory, to control: metrology hardware within the utility meter to measure consumption data; and communications module hardware within the utility meter to transmit the consumption data. a processor; a memory storing operating system, drivers, utilities, programme applications, data and/or data structures and other information in communication with the processor; a connector to provide an interface to a smart grid device wherein the connector is configured to provide an interface to components on a utility meter, and metrology hardware within the utility meter to measure consumption data; and communications module hardware within the utility meter to transmit the consumption data.