mhurhangee/ep-ind-claims huggingface dataset:
A signalling gateway arranged to allow a first client using hypertext transfer protocol, HTTP, to initiate a real-time connection to a session initiation protocol, SIP, client using SIP, the signalling gateway being arranged to: receive a triggered event, the triggered event indicating SIP client data being stored in a distributed shared memory; and in response to receiving the triggered event: read, from the distributed shared memory, the SIP client data, the SIP client data being stored in the distributed shared memory by the first client, initialise communication with the SIP client based on the read SIP client data, and store an indicator in the distributed shared memory, the indicator indicating to the first client that the connection is initialised. receive a triggered event, the triggered event indicating SIP client data being stored in a distributed shared memory; and in response to receiving the triggered event: read, from the distributed shared memory, the SIP client data, the SIP client data being stored in the distributed shared memory by the first client, initialise communication with the SIP client based on the read SIP client data, and store an indicator in the distributed shared memory, the indicator indicating to the first client that the connection is initialised. read, from the distributed shared memory, the SIP client data, the SIP client data being stored in the distributed shared memory by the first client, initialise communication with the SIP client based on the read SIP client data, and store an indicator in the distributed shared memory, the indicator indicating to the first client that the connection is initialised.
A method for operating an apparatus to amplify an input signal (906, 1010) in a wireless network, the method comprising: detecting a magnitude waveform (908, 1008) and a phase waveform (910, 1006) from a waveform of the input signal (906, 1010); generating a shaped signal by performing an envelope shaping to the magnitude waveform (908, 1008) based on characteristics for a distributed amplifier (902, 1002) in the apparatus; generating a filtered signal by filtering the shaped signal; generating a first signal by amplifying the filtered signal, wherein the first signal is used to provide a drain voltage or a collector voltage to a plurality of transistors in the distributed amplifier (902, 1002); generating a phase modulated waveform with a constant amplitude by performing phase modulation to the phase waveform (910, 1006), the phase modulated waveform in which a radio frequency, RF, carrier is used as an input of the distributed amplifier (902, 1002); generating a second signal by amplifying, by the distributed amplifier (902, 1002), the phase modulated waveform; and transmitting the second signal, wherein the characteristics of the distributed amplifier (902, 1002) for which the magnitude waveform (908, 1008) is shaped include a minimum drain voltage of the distributed amplifier (902, 1002), a linearity of the distributed amplifier, and a gain variation behavior of the distributed amplifier (902, 1002) over a dynamic range. detecting a magnitude waveform (908, 1008) and a phase waveform (910, 1006) from a waveform of the input signal (906, 1010); generating a shaped signal by performing an envelope shaping to the magnitude waveform (908, 1008) based on characteristics for a distributed amplifier (902, 1002) in the apparatus; generating a filtered signal by filtering the shaped signal; generating a first signal by amplifying the filtered signal, wherein the first signal is used to provide a drain voltage or a collector voltage to a plurality of transistors in the distributed amplifier (902, 1002); generating a phase modulated waveform with a constant amplitude by performing phase modulation to the phase waveform (910, 1006), the phase modulated waveform in which a radio frequency, RF, carrier is used as an input of the distributed amplifier (902, 1002); generating a second signal by amplifying, by the distributed amplifier (902, 1002), the phase modulated waveform; and transmitting the second signal, wherein the characteristics of the distributed amplifier (902, 1002) for which the magnitude waveform (908, 1008) is shaped include a minimum drain voltage of the distributed amplifier (902, 1002), a linearity of the distributed amplifier, and a gain variation behavior of the distributed amplifier (902, 1002) over a dynamic range.
Rotor disk of a turbomachine, comprising blades with roots mounted in grooves in the periphery of the disk, and an annulus comprising a radially outer edge against the roots of the blades for their axial retain and a radially inner edge festooned or crenellated in the annular groove of the disk and cooperates with a radially outer edge festooned or crenellated of the groove to immobilize the annulus in axial translation on the disk, characterized in that an annular lock is received in the annular groove of the disk to prevent the annulus from turning in said annular groove, said lock being turnable in the annular groove, said lock comprising a festooned or crenellated radially inner portion and being moved in rotation in an annular groove between a locking position of the annulus in which the solid portions of the radially inner portion of the lock are aligned with the gap portions of the outer edge of the groove, and a position of mounting and dismounting in the annular groove in which the solid portions of the radially inner portion of the lock are aligned with the solid portions of the outer edge of the groove.
A method comprising: establishing a subscriber session with a mobile subscriber on a policy enforcement point in communication with the mobile subscriber; sending a RADIUS-based access-request message from the policy enforcement point to a policy server to request a requested quality of service policy, the RADIUS-based access-request message including information identifying the subscriber session; receiving a RADIUS-based access-accept message including the requested quality of service policy from the policy server in response to the RADIUS-based access-request message; receiving from the policy server with a RADIUS-based change-of-authorization message an unsolicited quality of service policy that is independent of the requested quality of service policy said RADIUS-based change-of-authorization message including a vendor specific attribute, VSA; and applying at least one of the requested quality of service policy received in the RADIUS-based access-accept message or the unsolicited quality of service policy received in the RADIUS-based change-of-authorization message at the policy enforcement point to the subscriber session, wherein the unsolicited quality of service policy is generated to communicate a modification of quality of service to be applied at the policy enforcement point to the subscriber session, and wherein the modification of the quality of service policy is related to an anticipated flow of data traffic to the policy enforcement point. establishing a subscriber session with a mobile subscriber on a policy enforcement point in communication with the mobile subscriber; sending a RADIUS-based access-request message from the policy enforcement point to a policy server to request a requested quality of service policy, the RADIUS-based access-request message including information identifying the subscriber session; receiving a RADIUS-based access-accept message including the requested quality of service policy from the policy server in response to the RADIUS-based access-request message; receiving from the policy server with a RADIUS-based change-of-authorization message an unsolicited quality of service policy that is independent of the requested quality of service policy said RADIUS-based change-of-authorization message including a vendor specific attribute, VSA; and applying at least one of the requested quality of service policy received in the RADIUS-based access-accept message or the unsolicited quality of service policy received in the RADIUS-based change-of-authorization message at the policy enforcement point to the subscriber session, wherein the unsolicited quality of service policy is generated to communicate a modification of quality of service to be applied at the policy enforcement point to the subscriber session, and wherein the modification of the quality of service policy is related to an anticipated flow of data traffic to the policy enforcement point.
An engine stop control device of a hybrid vehicle comprising: a direct injection engine with a plurality of cylinders into which fuel is directly injected, a clutch connecting/disconnecting the direct injection engine to/from a power transmission path, and a rotating machine at least acting as an electric motor, wherein the hybrid vehicle uses the direct injection engine and the rotating machine as a drive power source for running and performs an ignition start for starting the direct injection engine by injecting fuel into the cylinders with a piston stopped in an expansion stroke while an assist torque is provided by the rotating machine, wherein, when the clutch is interrupted to stop the direct injection engine during running, the once interrupted clutch is temporarily connected at the time of the engine stop or immediately after the engine stop and within a time when a pumping action due to compression of air in the cylinders is acquired, and thereby a crankshaft being separated from a crest of a pumping energy generated near compression top dead center at which a piston in any of the cylinders of the direct injection engine reaches a top dead center after a compression stroke and the crankshaft being stopped automatically at a crank angle (φ) defined to correspond to a minimum region of the pumping energy. a direct injection engine with a plurality of cylinders into which fuel is directly injected, a clutch connecting/disconnecting the direct injection engine to/from a power transmission path, and a rotating machine at least acting as an electric motor, wherein the hybrid vehicle uses the direct injection engine and the rotating machine as a drive power source for running and performs an ignition start for starting the direct injection engine by injecting fuel into the cylinders with a piston stopped in an expansion stroke while an assist torque is provided by the rotating machine, wherein, when the clutch is interrupted to stop the direct injection engine during running, the once interrupted clutch is temporarily connected at the time of the engine stop or immediately after the engine stop and within a time when a pumping action due to compression of air in the cylinders is acquired, and thereby a crankshaft being separated from a crest of a pumping energy generated near compression top dead center at which a piston in any of the cylinders of the direct injection engine reaches a top dead center after a compression stroke and the crankshaft being stopped automatically at a crank angle (φ) defined to correspond to a minimum region of the pumping energy.
An antenna device, comprising a metal housing and a radiating circuit, the metal housing comprising a first edge and a second edge arranged opposite to each other, and a third edge and a fourth edge arranged opposite to each other, the third edge and the fourth edge being connected between the first edge and the second edge, a partitioning member being provided in the metal housing so that at least one radiating part is formed in the metal housing; wherein the metal housing comprises a backboard and a side frame, the side frame is integrally connected to the backboard, the partitioning member comprises a first slit and a first slit zone, the first slit extends from the first edge to the second edge and is adjacent to the third edge, the first slit zone comprises a plurality of slits and at least two metal strips juxtaposed and spaced apart from each other, and the first slit zone is in physical contact with both of the first slit and the edge of the metal housing so that the first slit zone, the first slit and the edge of the metal housing cooperate to form a first insulation section, and the first insulation section partitions the metal housing into two radiating parts, the radiating circuit is provided in the metal housing so that the radiating part of the metal housing serves as a radiator of the antenna device; wherein the two radiating parts comprise a first radiating part and a second radiating part serving as ground, the first radiating part is located between the third edge and the first slit, the radiating circuit comprises a first feeding point, a ground point and a first matching circuit, the first feeding point and the ground point are provided in the second radiating part, the first feeding point is electrically coupled to the first radiating part via the first matching circuit, and the first radiating part is electrically coupled to the ground point; characterized in that the first slit zone partitions the metal housing to form a frame body; the radiating circuit comprises a switch, the switch comprises a first end and a second end, the first end is electrically coupled to the frame body, and the second end is electrically coupled to one of the metal strips; the radiating circuit further comprises a second matching circuit and a second feeding point electrically coupled to the first radiating part via the second matching circuit, two first slit zones are provided, each of the first edge and the second edge is longer than each of the third edge and the fourth edge, one of the two first slit zones is in physical contact with the first edge and the first slit, the first matching circuit is located between the ground point and the said first slit zone, and the other first slit zone is in physical contact with the third edge and the first slit, the said other first slit zone is located between the second matching circuit and the ground point.
A method for resource scheduling, the method comprises receiving, by a first terminal device, indication information and resource grant information from a network device and performing data duplication by the first terminal device, the resource grant information being used to indicate a granted resource allocated to the first terminal device by the network device, and the indication information being used to indicate that the granted resource may be configured to transmit duplicated data and that the duplicated data is born through a target logical channel; and transmitting, by the first terminal device, the duplicated data from the target logical channel to a second terminal device through the granted resource according to the indication information and the resource grant information. receiving, by a first terminal device, indication information and resource grant information from a network device and performing data duplication by the first terminal device, the resource grant information being used to indicate a granted resource allocated to the first terminal device by the network device, and the indication information being used to indicate that the granted resource may be configured to transmit duplicated data and that the duplicated data is born through a target logical channel; and transmitting, by the first terminal device, the duplicated data from the target logical channel to a second terminal device through the granted resource according to the indication information and the resource grant information.
A high-manganese hot-rolled galvanized steel sheet comprising: a hot-rolled steel sheet consisting of, by wt%, C: 0.1% to 1.5%, Mn: 5% to 35%, Si: 0.1% to 3%, Al: 0.01% to 6%, Ni: 0.1% to 1.0%, Cr: 0.1% to 0.4%, Sn: 0.01% to 0.2%, Ti: 0.01% to 0.2%, B: 0.005% to 0.006%, and the balance of Fe and inevitable impurities; and a zinc coating layer formed on the hot-rolled steel sheet, wherein an internal oxide layer is formed in an internal region of the hot-rolled steel sheet facing the zinc coating layer, characterized in that an interface between the coating layer and the steel sheet is formed as Fe-Mn-Al-Zn interfacial inhibition layer or Fe-Mn-Al-Si-Zn interfacial inhibition layer. a hot-rolled steel sheet consisting of, by wt%, C: 0.1% to 1.5%, Mn: 5% to 35%, Si: 0.1% to 3%, Al: 0.01% to 6%, Ni: 0.1% to 1.0%, Cr: 0.1% to 0.4%, Sn: 0.01% to 0.2%, Ti: 0.01% to 0.2%, B: 0.005% to 0.006%, and the balance of Fe and inevitable impurities; and a zinc coating layer formed on the hot-rolled steel sheet, wherein an internal oxide layer is formed in an internal region of the hot-rolled steel sheet facing the zinc coating layer, characterized in that an interface between the coating layer and the steel sheet is formed as Fe-Mn-Al-Zn interfacial inhibition layer or Fe-Mn-Al-Si-Zn interfacial inhibition layer.
Connection profile for a composite profile, the connection profile comprising: a first fastening portion for fixing the connection profile to a first profile of the composite profile; a second fastening portion for fixing the connection profile to a second profile of the composite profile; and at least one interior located between the two fastening portions (4, 6), the interior being delimited by a wall of the connection profile, characterized in that the wall has an integrally closed feed joint which extends in the longitudinal direction of the connection profile and in that the feed joint and the wall comprising the feed joint comprise the same material. a first fastening portion for fixing the connection profile to a first profile of the composite profile; a second fastening portion for fixing the connection profile to a second profile of the composite profile; and at least one interior located between the two fastening portions (4, 6), the interior being delimited by a wall of the connection profile, characterized in that the wall has an integrally closed feed joint which extends in the longitudinal direction of the connection profile and in that the feed joint and the wall comprising the feed joint comprise the same material.
A method comprising: configuring a service as a collection of subservices on network devices of a network; decomposing a definition of the service into a subservice dependency graph that indicates the subservices and dependencies between the subservices that collectively implement the service; based on the subservice dependency graph, configuring the subservices to record and report subservice metrics indicative of subservice health states of the subservices; obtaining the subservice metrics from the subservices and determining the subservice health states of the subservices based on the subservice metrics; determining a health state of the service based on the sub service health states; if the health state of the service indicates a failing health state, identifying one or more subservices that are responsible for the failing health state based on the subservice health states; providing subservice reconfiguration information to one or more network devices corresponding to the one or more subservices that are identified as responsible for the failing health state; and in response to the subservice reconfiguration information, reconfiguring, by the network devices, the one or more subservices to perform a closed loop automation to restore the health state of the service to a passing health state. configuring a service as a collection of subservices on network devices of a network; decomposing a definition of the service into a subservice dependency graph that indicates the subservices and dependencies between the subservices that collectively implement the service; based on the subservice dependency graph, configuring the subservices to record and report subservice metrics indicative of subservice health states of the subservices; obtaining the subservice metrics from the subservices and determining the subservice health states of the subservices based on the subservice metrics; determining a health state of the service based on the sub service health states; if the health state of the service indicates a failing health state, identifying one or more subservices that are responsible for the failing health state based on the subservice health states; providing subservice reconfiguration information to one or more network devices corresponding to the one or more subservices that are identified as responsible for the failing health state; and in response to the subservice reconfiguration information, reconfiguring, by the network devices, the one or more subservices to perform a closed loop automation to restore the health state of the service to a passing health state.
Method for managing radio access in a first radio access network, characterized by the steps of: sending, from said first radio access network to a second radio access network, a radio access technology resource aggregation request concerning communication with a user equipment connected to a source radio base station of a source radio access network; and receiving, in said first radio access network from said second radio access network, a radio access technology resource aggregation request response, said source radio access network being said second radio access network; said first radio access network operating with a first radio access technology; and said second radio access network operating with a second radio access technology different from said first radio access technology; reserving radio resources of a radio base station in a target radio access network; and said target radio access network being said first radio access network, to which said user equipment is not connected; and sending, from said target radio access network to said source radio access network, a report of said reserved radio resources; and said radio base station of said source radio access network and said radio base station of said target radio access network having at least partly overlapping coverage areas. sending, from said first radio access network to a second radio access network, a radio access technology resource aggregation request concerning communication with a user equipment connected to a source radio base station of a source radio access network; and receiving, in said first radio access network from said second radio access network, a radio access technology resource aggregation request response, said source radio access network being said second radio access network; said first radio access network operating with a first radio access technology; and said second radio access network operating with a second radio access technology different from said first radio access technology; reserving radio resources of a radio base station in a target radio access network; and said target radio access network being said first radio access network, to which said user equipment is not connected; and sending, from said target radio access network to said source radio access network, a report of said reserved radio resources; and said radio base station of said source radio access network and said radio base station of said target radio access network having at least partly overlapping coverage areas.
A rotary dryer for resin dehydration, comprising: a cylindrical body which rotates about an axis perpendicular to a diameter of the cylindrical body; an air filter located outside the cylindrical body; coils located outside the cylindrical body, wherein the coils are oriented vertically and oriented parallel to the diameter of the cylindrical body, wherein the coils do not comprise horizontal surfaces; and lifters located within the cylindrical body. a cylindrical body which rotates about an axis perpendicular to a diameter of the cylindrical body; an air filter located outside the cylindrical body; coils located outside the cylindrical body, wherein the coils are oriented vertically and oriented parallel to the diameter of the cylindrical body, wherein the coils do not comprise horizontal surfaces; and lifters located within the cylindrical body.