mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, comprising: a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a direct device-to-device, D2D, circuit configured to provide D2D communications between the UE and a second UE; a measurement circuit configured to measure the signal quality of signals of an established D2D communication connection (312, 602) with the second UE; a message generator configured to: (a) generate, if the measured signal quality fulfils a predefined first signal quality criterion, a first message indicating the measured signal quality to thereby cause an eNodeB to prepare for handover; and (b) generate, if the measured signal quality fulfils a predefined second quality criterion, a second message indicating a request for a handover from the established D2D communication connection (312, 602) with the second UE to a cellular wide area radio communication connection (402, 404, 406) with the second UE; and a transceiver configured to send the first message and the second message to the eNodeB. a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a direct device-to-device, D2D, circuit configured to provide D2D communications between the UE and a second UE; a measurement circuit configured to measure the signal quality of signals of an established D2D communication connection (312, 602) with the second UE; a message generator configured to: (a) generate, if the measured signal quality fulfils a predefined first signal quality criterion, a first message indicating the measured signal quality to thereby cause an eNodeB to prepare for handover; and (b) generate, if the measured signal quality fulfils a predefined second quality criterion, a second message indicating a request for a handover from the established D2D communication connection (312, 602) with the second UE to a cellular wide area radio communication connection (402, 404, 406) with the second UE; and (a) generate, if the measured signal quality fulfils a predefined first signal quality criterion, a first message indicating the measured signal quality to thereby cause an eNodeB to prepare for handover; and (b) generate, if the measured signal quality fulfils a predefined second quality criterion, a second message indicating a request for a handover from the established D2D communication connection (312, 602) with the second UE to a cellular wide area radio communication connection (402, 404, 406) with the second UE; and a transceiver configured to send the first message and the second message to the eNodeB.
A computer-implemented method for generating an audio signal, the method comprising: receiving a first signal from a first audio source, wherein the first signal corresponds to an audio signal; transmitting the first signal to an output element (240) associated with a first user for output, if no second signal is received from an input element (150) associated with a second user; receiving a second signal from the input element (150) associated with a second user, wherein the second signal corresponds to a speech signal; selectively ducking low, middle, and high ranges of frequencies in the first signal in proportion to magnitudes of corresponding low, middle, and high ranges of frequencies in the second signal to generate a ducked first signal; combining the ducked first signal with the second signal to produce a combined signal; and transmitting the combined signal to the output element (240) associated with the first user for output, if a second signal was received from the input element (150) associated with the second user. receiving a first signal from a first audio source, wherein the first signal corresponds to an audio signal; transmitting the first signal to an output element (240) associated with a first user for output, if no second signal is received from an input element (150) associated with a second user; receiving a second signal from the input element (150) associated with a second user, wherein the second signal corresponds to a speech signal; selectively ducking low, middle, and high ranges of frequencies in the first signal in proportion to magnitudes of corresponding low, middle, and high ranges of frequencies in the second signal to generate a ducked first signal; combining the ducked first signal with the second signal to produce a combined signal; and transmitting the combined signal to the output element (240) associated with the first user for output, if a second signal was received from the input element (150) associated with the second user.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a first base station, a first control message including a resume identity, ID, associated with a context of the UE in an inactive state and paging cycle information of the UE comprising discontinuous reception, DRX, information of the UE; determining to enter into the inactive state based on the first control message; receiving, from a second base station, a paging message based on the paging cycle information of the UE, the paging message including the resume ID associated with the context of the UE in the inactive state; and initiating a connection resume procedure using the resume ID associated with the context of the UE in the inactive state, wherein the inactive state is a state where a connection between the UE and a core network is maintained, and a connection between the UE and a base station is suspended; and wherein the context of the UE is maintained in the inactive state. receiving, from a first base station, a first control message including a resume identity, ID, associated with a context of the UE in an inactive state and paging cycle information of the UE comprising discontinuous reception, DRX, information of the UE; determining to enter into the inactive state based on the first control message; receiving, from a second base station, a paging message based on the paging cycle information of the UE, the paging message including the resume ID associated with the context of the UE in the inactive state; and initiating a connection resume procedure using the resume ID associated with the context of the UE in the inactive state, wherein the inactive state is a state where a connection between the UE and a core network is maintained, and a connection between the UE and a base station is suspended; and wherein the context of the UE is maintained in the inactive state.
A method for forming three-dimensional objects, layer by layer, the method comprising: generating image data that includes cross sectional layers of a three-dimensional object to be printed and of a support construction; and selectively dispensing, layer by layer, from different arrays of inkjet printing head nozzles and according to the image data, a modeling material, a support material, and a reusable material made of one or more materials that were previously discharged from at least one of the inkjet printing heads, wherein the reusable material includes at least one of modeling and support materials collected after being dispensed from the inkjet printing heads to be reused during formation of the three-dimensional object, characterised in that each of the modeling material, the support material and the reusable material is dispensed from a different array of inkjet printing head nozzles. generating image data that includes cross sectional layers of a three-dimensional object to be printed and of a support construction; and selectively dispensing, layer by layer, from different arrays of inkjet printing head nozzles and according to the image data, a modeling material, a support material, and a reusable material made of one or more materials that were previously discharged from at least one of the inkjet printing heads, wherein the reusable material includes at least one of modeling and support materials collected after being dispensed from the inkjet printing heads to be reused during formation of the three-dimensional object, characterised in that each of the modeling material, the support material and the reusable material is dispensed from a different array of inkjet printing head nozzles.
Aircraft equipped with a propulsion system provided with at least one combustion engine to drive a power transmission chain, the combustion engine being mechanically connected to a drive system capable of setting in motion a movable system of the combustion engine, the drive system comprising two electric machines (35, 40), each connected by a kinematic chain to the combustion engine, the two electric machines (35, 40) being electrically connected to at least one electrical energy source, characterized in that said aircraft comprises a controller that manages at least one mechanical power or engine torque delivered by each of the two electric machines (35, 40) depending on a current operating mode, said controller being configured in at least one higher operating mode to control the two electric machines (35, 40) so that the two electric machines (35, 40) simultaneously deliver different and non-zero mechanical powers or engine torques.
Dividing wall structure for a liquid-collecting apparatus for a vehicle structure which comprises a crankshaft and connecting rods (3.1 to 3.6), having liquid channels (K1 to K6) and shaped portions (A1 to A6) for turning crankshaft and/or connecting-rod sections, whereby liquid is able to be forced out of the shaped portions (A1 to A6) via the liquid channels (K1 to K6), and at least one liquid channel (K1, K2, K5, K6) connects one shaped portion to another shaped portion (A1-A2; A2-A3; A6-A5; A5-A4), with the result that conveyance of liquid from shaped portion to shaped portion (A1-A2; A2-A3; A6-A5; A5-A4) is made possible.
A message sending method, comprising: configuring, on a first node, an aggregated route as a first container Forwarding Equivalence Class, FEC, wherein the first container FEC includes a prefix FEC and a container flag used for identifying that the first container FEC is of a container FEC type; creating a first Incoming Label Map, ILM, table entry for the first container FEC, wherein the first ILM table entry includes the container flag; receiving a first message on the first node; in a case where the first message matches the first ILM table entry preset on the first node, swapping a label of the first message into an outgoing label corresponding to a detailed FEC to obtain a second message, wherein swapping the label of the first message into the outgoing label corresponding to the detailed FEC comprises: looking up the outgoing label corresponding to the detailed FEC according to encapsulation information following a container label in a message label stack, wherein the message label stack is a label stack generated on a node upstream of the first node, the container label is a Multiprotocol Label Switching, MPLS, label having a binding relationship with the first container FEC, and the encapsulation information is information about the detailed FEC encapsulated following the container label in the message label stack; and swapping the container label in the message label stack into the found outgoing label corresponding to the detailed FEC; and forwarding the second message to a downstream node according to a Label Switched Path, LSP, corresponding to the detailed FEC. configuring, on a first node, an aggregated route as a first container Forwarding Equivalence Class, FEC, wherein the first container FEC includes a prefix FEC and a container flag used for identifying that the first container FEC is of a container FEC type; creating a first Incoming Label Map, ILM, table entry for the first container FEC, wherein the first ILM table entry includes the container flag; receiving a first message on the first node; in a case where the first message matches the first ILM table entry preset on the first node, swapping a label of the first message into an outgoing label corresponding to a detailed FEC to obtain a second message, wherein swapping the label of the first message into the outgoing label corresponding to the detailed FEC comprises: looking up the outgoing label corresponding to the detailed FEC according to encapsulation information following a container label in a message label stack, wherein the message label stack is a label stack generated on a node upstream of the first node, the container label is a Multiprotocol Label Switching, MPLS, label having a binding relationship with the first container FEC, and the encapsulation information is information about the detailed FEC encapsulated following the container label in the message label stack; and swapping the container label in the message label stack into the found outgoing label corresponding to the detailed FEC; and forwarding the second message to a downstream node according to a Label Switched Path, LSP, corresponding to the detailed FEC.
Electrochemical device, comprising a first stack of solid thin layers formed on a substrate, said first stack forming a battery and comprising: - a first electrode and a second electrode separated by an electronically insulating and ionically conductive first electrolyte layer, - a first current collector in contact with the first electrode, - a second current collector in contact with the second electrode, the first current collector and second current collector being electronically isolated by the first electrolyte layer, said device comprising a second stack different from the first stack and forming a thermometer, said second stack comprising: - a third current collector and a fourth current collector, - a resistive layer comprising a second electrolyte layer, the second electrolyte layer being in direct contact with the third current collector and the fourth current collector and electrically separating the third current collector from the fourth current collector, the second electrolyte layer being ionically dissociated from the first electrolyte layer, said device comprising a control circuit configured to measure the resistance of the resistive layer. - a first electrode and a second electrode separated by an electronically insulating and ionically conductive first electrolyte layer, - a first current collector in contact with the first electrode, - a second current collector in contact with the second electrode, the first current collector and second current collector being electronically isolated by the first electrolyte layer, - a third current collector and a fourth current collector, - a resistive layer comprising a second electrolyte layer, the second electrolyte layer being in direct contact with the third current collector and the fourth current collector and electrically separating the third current collector from the fourth current collector, the second electrolyte layer being ionically dissociated from the first electrolyte layer,
Method implemented by an interconnection device for interconnecting a first communication network and a second communication network, said interconnection device comprising a plurality of components (1111, 252, 253, 254, 255, 260) comprising a main processor, said plurality of components operating in a standby mode ensuring minimum energy consumption or an active mode leading to greater energy consumption, the standby mode being obtained by disconnecting the supply of electric power to said plurality of components, said interconnection device performing the following steps: - switching the plurality of components from standby mode to active mode under the control of a secondary processor, the secondary processor being a component of the interconnection device continually in active mode and controlling the switches of said plurality of components (1111, 252, 253, 254, 255, 260) to active mode at determined times, the switch to standby mode being controlled by the interconnection device following the end of implementation of a service, - following the switch of the plurality of components (1111, 252, 253, 254, 255, 260) to active mode, sending an interrogation request to a service management server connected to the first communication network to verify the existence of service implementation requests, this server being responsible for collecting and managing service implementation requests, - receiving a response to the interrogation request, and - the secondary processor switching the plurality of components (1111, 252, 253, 254, 255, 260) to standby mode at a time dependent on the received response. - switching the plurality of components from standby mode to active mode under the control of a secondary processor, the secondary processor being a component of the interconnection device continually in active mode and controlling the switches of said plurality of components (1111, 252, 253, 254, 255, 260) to active mode at determined times, the switch to standby mode being controlled by the interconnection device following the end of implementation of a service, - following the switch of the plurality of components (1111, 252, 253, 254, 255, 260) to active mode, sending an interrogation request to a service management server connected to the first communication network to verify the existence of service implementation requests, this server being responsible for collecting and managing service implementation requests, - receiving a response to the interrogation request, and - the secondary processor switching the plurality of components (1111, 252, 253, 254, 255, 260) to standby mode at a time dependent on the received response.
A driver for an acoustic transducer comprising: a moving diaphragm; a driver body formed of a magnetic material, the driver body comprising: a center post; an outer wall coupled to the center post via a bottom portion of the driver body; and an annular plate extending from the center post outwardly toward the outer wall; a moving coil coupled to the diaphragm, the moving coil disposed at least partially within an air gap formed between the annular plate and the outer wall; a stationary coil disposed within a cavity defined by the annular plate, outer wall, bottom portion and center post, the stationary coil being positioned in closer proximity to the center post than the moving coil; characterised in that a gap extender (1180, 1182, 1184, 1186) is disposed on the annular plate and the outer wall for extending an air gap length of the air gap, the gap extender (1180, 1182, 1184, 1186) including the magnetic material; and wherein the gap extender (1180, 1182, 1184, 1186) includes a first upper gap extender positioned on a top surface of the annular plate and being further positioned above the stationary coil. a moving diaphragm; a driver body formed of a magnetic material, the driver body comprising: a center post; an outer wall coupled to the center post via a bottom portion of the driver body; and an annular plate extending from the center post outwardly toward the outer wall; a center post; an outer wall coupled to the center post via a bottom portion of the driver body; and an annular plate extending from the center post outwardly toward the outer wall; a moving coil coupled to the diaphragm, the moving coil disposed at least partially within an air gap formed between the annular plate and the outer wall; a stationary coil disposed within a cavity defined by the annular plate, outer wall, bottom portion and center post, the stationary coil being positioned in closer proximity to the center post than the moving coil; characterised in that a gap extender (1180, 1182, 1184, 1186) is disposed on the annular plate and the outer wall for extending an air gap length of the air gap, the gap extender (1180, 1182, 1184, 1186) including the magnetic material; and wherein the gap extender (1180, 1182, 1184, 1186) includes a first upper gap extender positioned on a top surface of the annular plate and being further positioned above the stationary coil.
Switching device for a brake system for a vehicle, wherein the switching device has the following features: a central control unit (EBS-ECU) for controlling the brake system, at least one redundant control unit (R-ECU), which is or can be connected to the central control unit (EBS-ECU) via a further data bus, for controlling a redundant brake system for the brake system, characterized in that a monitoring apparatus is designed to read a redundant test signal from the redundant control unit (R-ECU), in order to test a function of the redundant control unit (R-ECU). a central control unit (EBS-ECU) for controlling the brake system, at least one redundant control unit (R-ECU), which is or can be connected to the central control unit (EBS-ECU) via a further data bus, for controlling a redundant brake system for the brake system, characterized in that a monitoring apparatus is designed to read a redundant test signal from the redundant control unit (R-ECU), in order to test a function of the redundant control unit (R-ECU).
Small fire system comprising a combustion chamber, a grille arranged in the lower area of the combustion chamber, a vibration element forming part of a vibration unit, arranged movably relative to the grille, wherein the vibration element comprises a vibration element base body, embodied in particular roof-like or roof-shaped with an upper edge pointing in the direction of the combustion chamber and side flanks (12a,12b) protruding at an angle from it, characterised in that at least one tube-like or tube-shaped flow element is arranged or embodied on the vibration base element limiting the flow channel through which a frictionless medium can pass.
A method for transmitting a broadcast signal, the method comprising: forming an information block for transmission, the information block comprising a first field comprising a plurality of bits having a fixed pattern; generating error detection bits based upon the information block; scrambling the plurality of bits of the first field using a first mask pattern and scrambling the error detection bits using a second mask pattern; generating the broadcast signal comprising the information block including the scrambled plurality of bits and the scrambled error detection bits; and transmitting the generated broadcast signal via the physical broadcast channel, with information regarding a second eNodeB transmit antenna configuration, wherein the first mask pattern is used to indicate the first eNodeB transmit antenna configuration for the first group of UEs and the second mask pattern is used to indicate a second eNodeB transmit antenna configuration for a second group of UEs. forming an information block for transmission, the information block comprising a first field comprising a plurality of bits having a fixed pattern; generating error detection bits based upon the information block; scrambling the plurality of bits of the first field using a first mask pattern and scrambling the error detection bits using a second mask pattern; generating the broadcast signal comprising the information block including the scrambled plurality of bits and the scrambled error detection bits; and transmitting the generated broadcast signal via the physical broadcast channel, with information regarding a second eNodeB transmit antenna configuration,
Crystalline 2-(2-(2-(2-(4-(benzo[d]thiazol-2-yl)phenoxy)ethoxy)ethoxy)ethoxy)ethan-1-ol (Compound I Form I) characterized by an X-ray powder diffractogram comprising the following peaks (°2θ ± 0.2 °2θ): 4.6, 20.8, and 23.7 as determined on a diffractometer using Cu-Kα radiation at a wavelength of 1.5406 Å, wherein the diffractogram optionally further comprises peaks (°2θ ± 0.2 °2θ) at 9.2, 16.3, 18.6, and 19.6.