2930 results about "Radio access network" patented technology

A wireless communication method and system enabling dynamic multi-path data transmission and reception across heterogeneous radio access networks. The method includes selecting between sequential, concurrent, or redundant multipath transmission strategies based on real-time measurements of link quality parameters, including signal-to-interference-plus-noise ratio (SINR), reference signal received power (RSRP), delay, and spectrum availability. The system further enables adaptive transmission power control, modulation scheme selection, and carrier configuration based on physical layer feedback, minimizing interference and optimizing spectral efficiency. Peer-to-peer communication between terminals is supported without base station mediation, reducing RAN load. Multi-base station connectivity is enabled, allowing terminals to simultaneously transmit through multiple nodes and aggregate at the core network. The architecture supports real-time topology control, dynamic link adaptation, and transmission parameter adjustment based on physical-layer constraints.

The invention overcomes the constraints imposed by conventional wireless communication standards by introducing a physical-layer optimized architecture that decouples transmission control from any single protocol. Rather than being confined by the predefined behaviors of LTE, 5G NR, Wi-Fi, or NB-IoT, the system implements a unified control system that dynamically manages radio parameters—such as modulation, coding, and power—based on real-time link quality and network context. This cross-standard, multimode capability effectively supersedes traditional standard-driven implementations, enabling adaptive, low-latency, and spectrum-efficient communication in complex heterogeneous environments.The system dynamically controls radio access network (RAN) and physical layer parameters, including carrier aggregation, dynamic spectrum allocation, modulation and coding scheme (MCS) adaptation, beamforming configuration, channel coding, transmit power control, and frequency selection. The system architecture includes multi-mode base stations, relay nodes, and edge access points that support inter-RAT handover, fast radio link recovery, and seamless mobility across diverse wireless technologies.

Embodiments include methods for a user equipment (UE) configured to report quality of experience (QoE) measurements in a radio access network (RAN). Such methods include monitoring performance of one or more services, of a UE application layer, that communicate with corresponding one or more application servers via the RAN. Such methods include, based on the monitoring, detecting one or more incidents that negatively affect user QoE and classifying each of the incidents as one of a plurality of categories of severity. Such methods include sending to a RAN node a message that includes the following: a QoE incident report that includes at least one count of incidents during a measurement period, with each count corresponding to a different category of severity; and results of radio measurements performed by a UE radio layer during the measurement period. Other embodiments include complementary methods for a network node or function (NNF).

Disclosed are various embodiments for dynamic availability zones in radio-based networks. In one embodiment, excess resource capacity on a radio access network (RAN)-enabled edge server in a cloud provider network is determined. The RAN-enabled edge server is located at a cell site and is configured to perform distributed unit (DU) and / or centralized unit (CU) functions for a RAN. The excess resource capacity is offered as part of a cellular capacity zone that is generally available to customers of the cloud provider network.

Embodiments include methods for a user equipment (UE) configured to communicate with a radio access network (RAN) via at least a master cell group (MCG). Such methods include receiving a plurality of conditional reconfigurations from the RAN. Each conditional reconfiguration is associated with a mobility procedure. one or more candidate target cells. and an execution condition. Such methods include storing the plurality of conditional reconfigurations and executing. according to a first reconfiguration. a first mobility procedure towards a first target cell served by a second RAN node. The first mobility procedure and the conditional reconfigurations are associated with a same one of the MCG and a secondary cell group (SCG) for the UE. Such methods include selectively maintaining or releasing each of the stored conditional reconfigurations. after executing the first mobility procedure. Other embodiments include complementary methods for the second RAN node and for a first RAN node.

Disclosed are various embodiments for automated deployment and management of distributed units (DUs) in a radio-based network. In one embodiment, it is determined to deploy a radio-based network at least partially using infrastructure of a cloud provider network. A radio access network (RAN)-enabled edge server of the cloud provider network is deployed to a physical location of the radio-based network. The RAN-enabled edge server is configured to perform a set of distributed unit (DU) functions for the radio-based network.

Embodiments include methods for a user equipment (UE) configured to communicate with a radio access network (RAN) node comprising a central unit (CU) and a distributed unit (DU) via a serving cell. Such methods include receiving, from the CU via the DU, an RRCReconfiguration message that includes channel state information (CSI) resource configurations associated with at least one candidate cell for L1 / L2-based inter-cell mobility. The at least one candidate cell is provided by one or more neighbor DUs. Such methods include performing CSI measurements on the at least one candidate cell according to the respective CSI resource configurations and sending, to the DU via the serving cell, one or more CSI reports based on the CSI measurements performed. Other embodiments include complementary methods for a CU, a first DU, and a second DU, as well as UEs, CUs, and DUs configured to perform such methods.

A radio access network (RAN) can perform a method for managing security protection for multicast and / or broadcast services (MBS). The method includes receiving (802), from a core network (CN) via a DL tunnel, a data packet associated with an MBS session; prior to transmitting the data packet to a plurality of UEs, determining (804) which security protection to apply to the data packet based on an identity of the DL tunnel; and transmitting (806) the data packet to the plurality of UEs using the determined security protection. A UE can receive (902), from a RAN, a configuration for establishing a logical channel with the RAN; receive (904), from the RAN via the logical channel, a data packet associated with an MBS session; determine (906) which security protection to apply to the data packet based on the configuration; and apply (908) the determined security protection to the data packet.

A method comprises obtaining signature data associated with a network element using a predictive model based on historical radio access data describing a prior incident at the network element in the radio access network, wherein the signature data indicates a pattern of the historical radio access data associated with the prior incident at the network element, inputting current radio access data into the predictive model to obtain a prediction output based on the signature data, wherein the prediction output indicates data regarding a predicted incident at the network element, a predefined time period in which the predicted incident is likely to occur, and a preventative resolution to the predicted incident, and generating a service report indicating at least one of the predicted incident at the network element, the predefined time period, or the preventative resolution.

Systems and methods for implementing writing configuration changes in a non-real-time radio access network intelligence controller (NRT-RIC) architecture including a Service Management and Orchestration (SMO) framework and a NRT-RIC framework in an open radio access network (O-RAN) are provided. The method includes: receiving at least one request to write a configuration change to one or more O-RAN Operations and Maintenance (OAM) related functions; authorizing the at least one request to write a configuration change to the one or more O-RAN OAM-related functions from the rApp; validating information provided by the at least one request to write a configuration change to one or more O-RAN OAM-related functions; creating a job for writing the configuration changes based on the information provided by the at least one request to write a configuration change to one or more O-RAN OAM-related functions; and sending a job identifier comprising information about the job to the rApp.

Network computing equipment may receive one or more radio parameter measurement reports generated by one or more user equipment. A report may comprise radio parameter values measured by user equipment corresponding to signals transmitted by a radio access network node and time information corresponding to the report. The computing equipment may perform temporal analysis based on time information corresponding to one or more reports and may generate a temporal graph based on the time information. Edges of the temporal graph may correspond to connection activity of user equipment that generated the reports with respect to one or more radio access network nodes. The edges may be ranked using a graph-based model and optimally combined with anomaly scores, determined based on the measured radio parameter values, into combined anomaly scores that may be compared to a criterion to determine that a radio access network node is a fake base station.

A method for enabling a wireless communication device to access services provided by a Radio Access Network, a user equipment (UE), a base station (BS) and a non-transitory computer readable storage medium are provided. In the method, a discontinuous reception (DRX) cycle is configured with a DRX ON period for transmission of at least one of control information or data and a DRX OFF period during which the transmission is suspended, and specifically the DRX cycle is a specific DRX cycle having a non-integer duration. This can eliminate a mismatch between burst arrival interval and the DRX cycle to adapt the EXtended Reality (XR) / Cloud Gaming (CG) traffic, for example.

In accordance with an embodiment of the disclosure, a method performed by a near-real time radio access network intelligence controller (Near-RT RIC) is provided. The Near-RT RIC transmitting, by the Near-RT RIC to a E2 node, a radio access network intelligence controller (RIC) subscription audit request message to audit one or more RIC subscriptions on the E2 node, the RIC subscription audit request message including subscription information of the one or more RIC subscriptions, and receiving, by the Near-RT RIC from the E2 node, a RIC subscription audit response message in response to the RIC subscription audit request message, wherein the RIC subscription audit response message includes subscription information of at least one RIC subscription recognized in the E2 node, among the one or more RIC subscriptions, and wherein, for each of the least one RIC subscription recognized in the E2 node, the subscription information includes a radio access network (RAN) function identifier (ID) and a RIC request ID.

Techniques for encrypting data within a 5G Open Radio Access Network (O-RAN) includes receiving, at a first module of the 5G O-RAN, a first set of one or more data packets encrypted using mathematical encryption. The method also includes determining, using a machine-learning model trained to detect cybersecurity threats, the existence of a cybersecurity threat associated with the voice or data transaction, and in response, determining to switch encryption from the mathematical encryption to quantum encryption. The method further includes encrypting the one or more data packets using a quantum encryption key to generate quantum-encrypted data packets, transmitting the quantum encryption key from the first module of the 5G O-RAN core to a second module of the 5G O-RAN over a quantum key distribution (QKD) channel, and transmitting the quantum-encrypted data packets from the first module of the 5G O-RAN to the second module of the 5G O-RAN.

A system described herein may monitor Key Performance Indicators (“KPIs”) of a radio access network (“RAN”) that implements a first radio access technology (“RAT”), such as a Fifth Generation (“5G”) RAT. The system may determine, based on monitoring the KPIs of the RAN, that a particular RAN condition has occurred, and may notify a Fixed Wireless Access (“FWA”) device, that is wirelessly connected to the RAN via the first RAT and that is also wirelessly connected to a plurality of client devices via a second RAT, such as a WiFi RAT, that the particular RAN condition has occurred. The FWA device may implement one or more policies for communications between the FWA device and the plurality of client devices based on receiving the notification that the particular RAN condition has occurred.

Embodiments include methods performed by a first radio access network (RAN) node configured to provide dual connectivity for a user equipment (UE) together with a second RAN node. Such methods include receiving, from another node or function associated with the RAN, a measurement configuration that includes a first configuration for quality-of-experience (QoE) measurements and an indication that the QoE measurements should be time aligned with minimization of drive testing (MDT) measurements. Such methods include sending the first configuration to the UE, receiving from the UE a first indication that an event associated with the QoE measurements has occurred, and responsive to the first indication, initiating first MDT measurements and sending to the second RAN node a command to initiate MDT measurements that are time aligned with the QoE measurements associated with the first configuration. Other embodiments include complementary methods for the second RAN node and a measurement collection node or function (MCNF).

The disclosure relates to a pre-5th-Generation (5G) or 5G communication system to be provided for supporting higher data rates Beyond 4th-Generation (4G) communication system such as Long Term Evolution (LTE). A method performed by an E2 node is provided. The method includes receiving a radio access network (RAN) intelligent controller (RIC) subscription request message from an RIC via an E2 interface, and the RIC subscription request message may include information indicating a network interface type.

Methods and apparatuses are described herein for configuration of background data transfers (BDTs) between local area data networks (LADNs). An apparatus may receive a message indicating a request from a user equipment (UE) for a data transfer of data originating from the UE. The apparatus may send, to a database, a request for subscription information associated with the UE and a policy profile associated with the UE to determine whether there is an existing BDT policy. The apparatus may receive, from the database, a response indicating whether there is an existing BDT policy that can be re-used. The apparatus may determine, based on the received response, a BDT policy for the data transfer and a LADN to service the data transfer. The apparatus may send, to the LADN via a radio access network (RAN) node, a notification message of an arrival time and data rate for the data transfer.

In some embodiments, a network apparatus in a telecommunications network, wherein the telecommunications network comprises at least one core network and at least one network node, can be configured to receive data comprising an indication to disable, enable or reenable the use of at least one network operation of the network apparatus for a user equipment, UE, wherein the user equipment, UE, is in a radio resource control, RRC, idle or inactive state of operation, and wherein the user equipment, UE, is participating in an active Packet Data Unit, PDU, or Evolved Universal Terrestrial Radio Access Network, E-UTRAN, Radio Access Bearer, E-RAB, session for an emergency call, and use the received data to disable, enable or reenable the at least one network operation.

Provided herein are methods and systems for detecting, evaluating, and mitigating conflicts in an open radio access network (open RAN) including a profiler for generating an application profile for each of a plurality of applications deployable on the open RAN by simulating a behavior of each application with respect to a corresponding parameter set under a predefined plurality of operational condition sets, a conflict detection component configured to determine a predicted existence of a conflict between a requested application and one or more currently instantiated applications, a conflict evaluation component configured to determine a predicted frequency and a predicted severity of the conflict, and a conflict mitigation component configured to develop a conflict mitigation scheme and, according to the conflict mitigation scheme, at least one of block instantiation of the requested application, instantiate the requested application, or uninstantiate at least one of the currently instantiated applications.

A user equipment (UE) is configured to receive, from a serving base station of a radio access network, an uplink (UL) timing advance configuration including a first time alignment timer (TAT) corresponding to a first transmission and reception point (TRP) and a second TAT corresponding to a second TRP in a multi-TRP network arrangement, detect an out of synchronization (OOS) condition for the first TRP based on the first TAT while the second TRP remains synchronized based on the second TAT, or receive a physical downlink control channel (PDCCH) order from the network mapped to the first TRP triggering a physical random access channel (PRACH) transmission, stop UL transmissions for at least the first TRP and transmit the PRACH so that the network can determine and configure a new TAT for the first TRP.

Embodiments include methods method for a user equipment (UE) configured to communicate with a radio access network (RAN) via a master cell group (MCG) provided by a first RAN node and a secondary cell group (SCG) provided by a second RAN node. Such methods include, based on detecting a failure condition in the MCG and determining that the SCG is neither deactivated nor suspended, transmitting an MCG failure report to the second RAN node via the SCG and initiating a timer associated with a fast MCG recovery procedure. Such methods include storing information associated with the fast MCG recovery procedure and subsequently transmitting, to a third RAN node, a message including the information associated with the fast MCG recovery procedure. Other embodiments include complementary methods for the first RAN node and the third RAN node, as well as UEs and RAN nodes configured to perform such methods.

The present invention relates to an apparatus comprising: memory to store policy statement information for a plurality of radio access network (RAN) automation applications (rApps); and processing circuitry, coupled with the memory, to: retrieve the policy statement information from the memory, wherein the policy statement information includes respective policy scope identifiers for respective rApps in the plurality of rApps; identify a conflict associated with common or overlapping policy scope identifiers between two or more rApps from the plurality of rApps; modify one or more A1 policies associated with an A1 interface connecting a non-real-time (non-RT) RAN intelligence controller (RIC) and a near-real-time (near-RT) RIC to resolve the conflict; and notify the two or more rApps of the modification of the one or more A1 policies.

Apparatuses, systems, and techniques including APIs, subscription services, and controllers to enable one or more fifth generation new radio (5G-NR) networks to share information. For example, a processor comprising one or more circuits can perform an API or subscription service to cause a device in a radio access network (RAN) to share its analytic data with a device in a transport network, and said device in said transport network can use said analytic data to adjust its network settings to improve performance.

An entity in a core network (CN) of a wireless communication system receives quality-of-service (QoS) parameters related to protocol data unit (PDU) set based handling of traffic (1602); performs, using the QoS parameters, QoS binding of a service data flow to a QoS flow for a certain media type (1604); generates a QoS profile associated with a QoS flow identifier (QFI) of the QoS flow, and transmits the QoS profile to a radio access network (RAN) via which the UE accesses the CN (1606).

Methods, systems, and devices for wireless communication are described. A radio access network (RAN) node may receive a message including meta-information of a machine learning model for operation by one or more devices within a coverage area of the RAN node (e.g., supported by the RAN node), where the machine learning model may be transparent to the RAN node. The meta-information may include suitability information for control and management of the machine learning model by the RAN node. In some examples, the RAN node may receive meta-information from various logical functions. In some other examples, the RAN node may receive meta-information from one or more devices. In response to receiving the meta-information, the RAN node may send a model management message that instructs a device of the one or more devices to perform a model management operation for the machine learning model.

Techniques of updating machine learning models in a network include combining global and local models at each electronic entity of a network. For example, a first electronic entity (e.g., a user device) may train a local machine learning (ML) model based on data collected by the first electronic entity or other entities (e.g., other user devices, servers) and make predictions based on that model. Nevertheless, other electronic entities may also train or store their own local ML models. Accordingly, for more insight about the network and better predictability of the ML models, the first electronic entity may obtain a ML model from a second electronic entity, i.e., a global ML model. Upon receipt of the global ML model, the first electronic entity may aggregate the local ML model and the global ML model to produce an updated global ML model.

A system, method, and computer-readable media for executing applications for radio interface controller (RIC) management are disclosed. The system includes far-edge datacenters configured to execute a radio access network (RAN) function and a real-time RIC; near-edge datacenters configured to execute a core network function and a near-real-time RIC or a non-real-time RIC; and a central controller. The central controller is configured to: receive inputs of application requirements, hardware constraints, and a capacity of first and second computing resources at the far-edge datacenters and near-edge datacenters; enumerate a plurality of feasible combinations of application locations and configurations that satisfy the application requirements and hardware constraints; incrementally allocate a quant of the first or second computing resources to a feasible combination that would produce a greatest utility from the quant based on a utility function; and deploy each of the plurality of applications.

A method of radio communicating between a radio device and a network node of a radio access network, RAN, using a temporal radio resource associated with a channel occupancy time, COT. The method is performed by the radio device or initiated by the radio device by at least one of: determining if a first COT is initiated by the radio device; determining if a second COT is initiated by the network node; and radio communicating with the network node in the temporal radio resource associated with the first COT or the second COT depending on the determinations, wherein determinations are based on information in a DCI message.

A wireless transmit-receive unit (WTRU) may camp on a non-terrestrial network (NTN) cell and evaluate one or more terrestrial network (TN) cells, for example, to determine whether to change a radio access network (RAN) based notification area (RNA). In examples, the WTRU may receive an indication to change from a first TN cell to the NTN cell. The WTRU may perform, based on the indication, a cell reselection to the NTN cell. The first TN cell may be associated with a first RNA. The WTRU may evaluate a second TN cell associated with a second RNA. The WTRU may determine that a cell reselection condition associated with the second TN cell is satisfied. The WTRU may perform, based on the determination that the cell reselection condition is satisfied, a cell reselection to the second TN cell.