224 results about "Telecommunications network" patented technology

The invention discloses an auto-filling method and device of a northbound FTP (File Transfer Protocol) performance file for a telecommunication network management system. The method comprises the following steps of: setting the granularity state of granularity of performance data according to the reported time of the performance data from a foreground network element by a performance loading module of the telecommunication network management system; when the performance loading module receives information reported subsequently by the foreground network element, wherein the information contains the performance data, if judging that the granularity of the performance data is in a completed state according to the set granularity state, then sending filling information containing the performance data to a northbound FTP performance module; and carrying out the processing that the performance data is filled to a previously generated northbound FTP performance file with the granularity by the northbound FTP performance module according to the filling information. Through the auto-filling method, the information reported by the foreground network element is analyzed to judge whether the northbound FTP performance file is complete or not, and the auto-filling of the performance data is carried out when the judgment result is that the northbound FTP performance file is incomplete.

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.

Technologies for shared radio unit architectures supporting dynamic temporary resource allocation are described. One method includes identifying unused resources to be temporarily provided by a source guest operator of a plurality of guest operators of a telecommunications network, wherein each guest operator of the plurality of guest operators shares a radio unit provided by a host operator of the telecommunications network, identifying at least one destination guest operator of the telecommunications network, and temporarily allocating at least a portion of the unused resources to the at least one destination guest operator.

The present disclosure relates to a network-controlled repeater for a mobile telecommunications network, wherein the network-controlled repeater includes circuitry configured to detect a radio link failure in a connection between the network-controlled repeater and a cell provided by a base station of the mobile telecommunications network; and release, based on the detected radio link failure, a first configuration of a forwarding function of the network-controlled repeater.

A method for discovering ownership assignment of computer devices includes obtaining a set of unassigned internet protocol (IP) addresses. The multiple computer devices are assigned to multiple teams of an organization such that each team is assigned to a segment of the sequence of IP addresses. The method includes converting each IP address into a numerical value. The method includes obtaining a set of assigned IP addresses from an assigned IP address database and obtaining a subnet allocation for each IP address in the set of assigned IP addresses. For a particular unassigned IP address, the method includes a reference IP address from the set of assigned IP addresses and determining whether the particular IP address and the reference IP address have a same subnet allocation. The method includes determining the ownership assignment based on the subnet allocation.

Methods and apparatuses for improving telecommunications services using virtualized network functions are described. The virtualized network functions may be deployed across different data centers of a data center hierarchy that electrically connect one or more user devices with one or more data networks. A set of virtualized network functions may be assigned to computing resources within a particular data center based on latency requirements, power requirements, and / or quality of service requirements for one or more network slices supported by the set of virtualized network functions. The set of virtualized networks functions may include a set of shared core network functions that are shared by two or more network slices.

A user equipment (UE) can be a mobile terminating (MT) device that may receive data from another UE or other network element via a telecommunication network. When a small data payload is available for an MT UE, a base station of the telecommunication network can send a paging message to the UE that includes a Mobile Terminating Small Data Transmission (MT-SDT) paging cause. Based on the MT-SDT paging cause in the paging message, the UE can use Small Data Transmission (SDT) procedures to respond to the paging message. The SDT procedures can allow the UE to obtain the small data payload while the UE remains in a Radio Resource Control (RRC) Inactive state.

The system (108) in the present disclosure for service barring workflow is designed to automate and streamline the process of managing service barring actions in a telecommunications network It provides centralized control, efficient processing. and granular control over service restrictions by implementing a method (400) involving various nodes. Tracking Area Code (TAC) and Network administrators. The system (108) offers advantages such as enhanced operational efficiency. accurate enforcement of service barring rules. real-time monitoring. and reporting capabilities. It integrates with network elements and ensures compliance with regulatory requirements. With its flexible and scalable architecture, the system (108) enables administrators and users to efficiently handle service barring requests while maintaining a positive customer experience. Overall, the system (108) for service barring workflow optimizes the service management process. enhances security, and contributes to effective network control and customer satisfaction.

The disclosure relates to 5th generation (5G) and / or 6th generation (6G) communication system for supporting a higher data transmission rate. A method is provided of operating a user equipment (UE) with multi universal subscriber identity module (M-USIM) capability in a wireless communication system. The method includes performing a registration procedure with respect to a connected telecommunication network if the UE is in a non-allowed area and encounters or receives a trigger for a network access stratum (NAS) procedure related to an M-USIM feature.

The present invention proposes a method for provisioning a credential to a user equipment (10) in a private telecommunications network, the private telecommunications network including a credential holder and a gNB / AMF or eNB / MME, the method comprising: a) sending a provisioning request (40) from the user equipment (10) to the gNB / AMF or eNB / MME (11); b) establishing a PLS key (41) between the user equipment (10) and the gNB / AMF or eNB / MME (11) by physical layer security; c) providing a PLS key to the user equipment (10) via a PLS key; d) transmitting 43 a message from the user equipment 10 to the gNB / AMF or eNB / MME 11, the message including data permitting identification of the user of the user equipment 10 and / or the user equipment 10 and the master key, the message being integrity and confidentiality protected by a PLS key or a key derived from the PLS key; e) transmitting 44 a message from the gNB / AMF or eNB / MME 11 to the credential holder 12, the message including data permitting identification of the user of the user equipment 10 and / or the user equipment 10 and the master key, the message being integrity and confidentiality protected by a PLS key or a key derived from the PLS key. f) verifying in the credential holder (12) the data that allows identifying the user of the user equipment (10) and / or the user equipment (10); g) if the verification is positive, assigning in the credential holder (12) a unique subscription identifier to the user equipment (10) and generating corresponding keys, security parameters, and key derivation functions; h) transmitting the unique subscription identifier from the credential holder (12) to the gNB / AMF or eNB / MME (11). i) transmitting the unique subscription identifier, security parameters, and key derivation function from the gNB / AMF or eNB / MME (11) to the user equipment (10) in a message integrity and confidentiality protected by a PLS key or a key derived from the PLS key (47); j) generating a final key at the user equipment (10), the final key being a credential including the unique subscription identifier, security parameters, and final key (48);Including.

A method includes receiving, at an apparatus, telecommunication network data including cumulative daily data and peak utilization data. A neural net-based time series model on the apparatus generates a forecasted number of users in a cell of the network and a forecasted traffic load in the cell of the network, each based on the cumulative daily data. A machine learning regression model on the apparatus calculates a predicted peak utilization of the cell of the network from the forecasted number of users and the forecasted traffic load of the cell.

Described herein are systems and methods for optimizing wireless telecommunications networks. Some implementations relate to automatically managing capacity by adjusting beamforming configurations. Some implementations relate to optimizing service provided by both terrestrial and non-terrestrial networks. In some implementations, the systems and methods herein optimize handoffs from a terrestrial network to a non-terrestrial network. In some implementations, the systems and methods herein regulate access to a non-terrestrial network.

Example embodiments of the present disclosure relate to cell health metrics management. According to an example embodiment, a device may be configured to receive cell information associated with a cell in a telecommunication network and determine cell health metrics of the cell based thereon. The cell information may include a current state of a finite state machine (FSM) of the cell. The device may also be configured to record the cell health metrics in a local cache and then synchronize a table with the cell health metrics recorded in the local cache based on determining that the predetermined time period has elapsed. Further, the device may also be configured to transmit the table to a northbound component of the telecommunication network.

Communication Method The communication method by a user device (3) located within the coverage area of ​​an access point (2) of a telecommunications network comprises: a step of receiving an announcement made by an access point within its coverage area, indicating a degraded operating mode in which the access point operates at reduced capacity and has switched over; and a step of triggering at least one action to acknowledge the degraded operating mode of the access point. Figure for the abbreviation: Fig. 1.

The present disclosure relates to a method and system for generating a PCF response in a telecommunications network The method comprises receiving a policy control request message from one or more NFs. The method comprises checking IEs received in the policy control request message and fetching a set of data from one or more data source servers. The method comprises performing, by an application unit [308], one or more NF policy control procedures based on the fetched set of data. The method comprises generating a PCF response based on performance of the one or more NF policy control procedures and the set of user-defined policy rules. Generating of PCF response comprises enabling a reflective value feature, reflecting values of the IEs, based on reflective value feature, when no matching rule is found in set of user-defined policy rules and returning the reflective values of the IEs as PCF response.

Embodiments of the present disclosure are directed to systems, networks and methods for determining, using a network function of an operator core network for a telecommunications network, an occurrence of a slice transaction associated with a network slice having a set of slice data, determining that the slice transaction is a valid slice transaction through the utilization of a consensus mechanism of a blockchain ledger. Aspects may also cause the storage of the set of slice data in a block of the blockchain ledger, orchestrating the slice transaction on the operator core network, based on causing the storage of the set of slice data in the block of the blockchain ledger; and selectively allocating the network slice to one or more user equipment (UE) in communication with the at least one radio access network.

A server device for managing a hybrid satellite and terrestrial telecommunications network system for Internet of Things (IoT) devices receives monitoring data from IoT devices. Each of the IoT devices includes a dual network interface controller (NIC) configured to facilitate the connection of the respective IoT device to a terrestrial network and a satellite network and sensors for capturing the monitoring data. The monitoring data includes network infrastructure integrity data and environmental data that describes environmental conditions surrounding a respective IoT device. The server device determines that the terrestrial network is experiencing an interruption using the monitoring data and identifies a group of IoT devices to be switched from the terrestrial network to the satellite network using the monitoring data. The server device can cause the group of IoT devices to switch communication from the terrestrial network to the satellite network.

The system inputs at least one security log file from a first data domain into a first machine learning (ML) model. The system compute, using an output from the first ML model, a weighted sentiment value for one or more of the multiple cybersecurity events. The system detects, using a second ML model, an anomaly in a first cybersecurity event of the multiple cybersecurity events. The system correlates, using a third ML model, the anomaly in the first cybersecurity event to a different anomaly in a second cybersecurity event associated with a second data domain. The system determines, using a fourth machine learning model, a cybersecurity action to minimize a cyberattack. The system determines, using the fourth model, a predicted impact to the telecommunication network associated. The system generates a prioritization ranking of every cybersecurity action and executes each cybersecurity action based on the prioritization ranking.

Generation of descriptive information for a network trace of a telecommunications network. The invention relates to a method for generating descriptive information for a network trace comprising packets exchanged on a telecommunications network, comprising the following steps: - determination (213) of at least one characteristic from packets of the network trace; - determination (215) of descriptive information for the network trace based on at least one output of a classification model applied to said at least one determined characteristic, said descriptive information indicating at least whether the network trace corresponds to a single-activity or multi-activity situation. Figure for the abstract: [Fig 2b]

The system obtains an issue associated with a network and resolves the issue by suggesting a solution and receiving an approval from an AR / VR device. Based on the issue, the system creates a ticket describing the issue and obtains diagnostic information associated with the issue. Based on the diagnostic information, the system determines a fix for the issue and sends a first notification to the AR / VR device. The first notification includes a description of the issue, the fix for the issue, and a request to test the fix. Upon receiving an approval to test the fix, the system performs regression testing using the fix and determines whether the fix passed the regression testing. Upon determining that the fix passed the regression testing, the system sends a second notification to the AR / VR device requesting an approval to deploy the fix, and upon receiving the approval, the system deploys the fix.

The present invention relates to methods, systems and apparatus for facilitating Small Data Transmissions (SDT) in a mobile telecommunications network. In particular, the present disclosure relates to a method comprising receiving, at a base station of the mobile telecommunications network, a portion of data to be transmitted to a terminal connected to the mobile telecommunications network; determining a transmission size indicator for the portion of data; and providing an enhanced paging message to the terminal, the enhanced paging message including the transmission size indicator, wherein the enhanced paging message is configured to allow the terminal to determine a required terminal connection state, for receiving the portion of data, based on the transmission size indicator.

The technology described herein allows a user to bring phone functionality into a virtual world without disrupting the virtual world experience. For example, the technology described herein enables the user to make and receive calls while in the virtual world, access their contacts, and recent call information. The user may also send and receive text communications. This functionality may be enabled by a phone-sharing application running on a Head Mounted Device (“HMD”) interfacing with the wireless telecommunication network that provides service to the user's telephone (e.g., smartphone). The phone-sharing application can communicate with the telecommunication network to provide notice that the user is actively using the HMD (e.g., in a virtual world). Upon receiving the notice, the telecommunication network can associate the user's telephone number with the HMD to cause communications to be routed to the HMD.

A method of deploying an optical fiber cable in a telecommunications network, the optical fiber cable being configured to connect a first optical fiber interface unit in the telecommunications network and a second optical fiber interface unit in a dwelling, is disclosed.

Disclosed is a method for a base station (e.g. gNB 10), communicatively coupled to a telecommunication network, to page a repeater (e.g. a Network Controlled Repeater, NCR, 20) comprising the steps of

The present invention relates to a method for managing access to a traffic policy management function (111) implemented by a terminal (100) connected to a telecommunications network (200), the method comprising the following steps implemented by the operating system (110) of the terminal (100): using an authorization process implemented via the telecommunications network and selected by a controller (210) of the telecommunications network (200), checking whether a computer application (120) of the terminal (100) that wishes to access the traffic policy management function (111) is authorized to invoke the function; and authorizing the computer application to access the function (111) based on the result of the check.

The application provides a method of reporting an unsolicited call to a network operator of a telecommunications network. A message at a user equipment, UE, of the telecommunications network is receiv

This disclosure describes techniques that can be used for dynamic link adaptation in wireless telecommunications networks. Some implementations relate to determine signal to interference and noise (SINR) back off values, which can be used to determine adjustments to transmission characteristics such as transmission power for improving throughout. In some implementations, block error rates are used to determine adjustments to transmission power. In some implementations, slot-specific adjustments are determined. Reinforcement learning can be used to determine adjustments in real time or nearly real time.

A first network node operating in a telecommunications network can receive an authentication request associated with a communication device requesting registration with the telecommunications network. The authentication request can include first subscriber information. The first network node can determine that the first subscriber information includes an anonymous identifier. In response to determining that the first subscriber information includes an anonymous identifier, the network node can determine an authentication procedure to perform. The network node can receive information associated with the communication device as part of the authentication procedure. The network node can generate second subscriber information based on the information associated with the communication device.

A method for transmitting configuration data (CONF) in a telecommunications network comprises the following steps: - preparation, by a first electronic device, of verification data (MAC'') based on the configuration data (CONF) and a cryptographic key (K), the first electronic device being a server (22) or a telecommunications network management module; - transmission of the configuration data (CONF) and the verification data (MAC'') to a second electronic device, the second electronic device being a telecommunications network management module (14) when the first electronic device is the server, and the second electronic device being a terminal when the first electronic device is the management module; - verification of the verification data (MAC'') by the second electronic device (14). Figure for the abstract: Figure 3

A server device for managing a hybrid satellite and terrestrial telecommunications network system for Internet of Things (IoT) devices receives monitoring data from IoT devices. Each of the IoT devices includes a dual network interface controller (NIC) configured to facilitate the connection of the respective IoT device to a terrestrial network and a satellite network and sensors for capturing the monitoring data. The monitoring data includes network infrastructure integrity data and environmental data that describes environmental conditions surrounding a respective IoT device. The server device determines that the terrestrial network is experiencing an interruption using the monitoring data and identifies a group of IoT devices to be switched from the terrestrial network to the satellite network using the monitoring data. The server device can cause the group of IoT devices to switch communication from the terrestrial network to the satellite network.