Abstract: A method performed by at least one processor in user equipment (UE) includes displaying a presentation user interface received from a server, the presentation interface including (i) a symbol display that includes one or more symbols, and (ii) a working area. The method further includes selecting a first symbol from the symbol display and moving the first symbol to the working area. The method further includes selecting a second symbol from the symbol display and moving the second symbol to the working area. The method further includes connecting, in the working area, the first symbol to the second symbol forming a workflow topology. The method further includes transmitting the workflow topology to the server.

Abstract: Provided are a method and system for handling FCAPS reporting for the FM MS and PM MS. The method may be performed by at least one processor, for reporting data to a northbound management system (NBMS), the method including: receiving, by a FCAPS reporting microservice (FCAPSR MS) from an Fault Management microservice (FM MS) of a first Radio Access Network (RAN) Network Function (NF), first data comprising fault event data, the FCAPSR MS being a host level MS; receiving, by the FCAPSR MS from an Performance Management microservice (PM MS) of the first RAN NF, second data comprising performance data; and reporting, from the FCAPSR MS to the NBMS, at least one of the first data and the second data.

Abstract: Provided are features for determining authentication status information of an Open Radio Access Network (O-RAN) Radio Unit (O-RU). According to embodiments, an O-RU controller may be configured to: obtain a Media Access Control (MAC) address of an O-RU; determine, based on the MAC address of the O-RU, an authentication status of the O-RU; based on determining that the O-RU has been authenticated, establish a channel binding with the O-RU; and based on determining that the O-RU has not been authenticated, isolate the O-RU from further communications with the O-RU controller.

Abstract: Provided are system, method, and device for managing machine learning models in a network. According to embodiments, the system may include: a memory storage storing computer-executable instructions; and at least one processor communicatively coupled to the memory storage, wherein the at least one processor may be configured to execute the instructions to: store one or more machine learning model; and distribute the one or more machine learning model to one or more target network element in a network.

Abstract: A method for optimizing the scheduling of an O-Cloud node, the method includes: determining a NF hosted on a O-Cloud node to be migrated to another O-Cloud nodes; sending a recommendation to the SMO to migrate the determined NF; sending instructions to implement the migration of the NF via an O2 interface to an O-Cloud management service; controlling the implementation of the migration of the determined NF to the other O-Cloud nodes; upon implementation of the migration, sending a confirmation notice to the SMO via the O2 interface; wherein the determining the one or more network functions NFs to be migrated, includes: obtaining data referring to historical and/or current utilization patterns of a O-Cloud node and/or a NF hosted thereon; inputting the data to an AI/ML model; obtaining a prediction of a utilization scenario; and determining a migration recommendation for the NF.

Abstract: Embodiments herein provide a method for testing wireless network by a master electronic device. Further, the method includes simultaneously starting at least one test on each slave electronic device of a plurality of slave electronic devices. Further, the method includes periodically receiving KPIs information associated with the at least one test while the at least one test is on-going on the particular path by each slave electronic device of the plurality of slave electronic devices. Further, the method includes displaying the KPIs information associated with the at least one test while the at least one test on the particular path is on-going in each slave electronic device of the plurality of slave electronic devices. Further, the method includes simultaneously stopping the at least one test on each slave electronic device of the plurality of slave electronic devices.

Abstract: For more efficient confirmation of a successful cyberattack simulation, as a plurality of security tests are executed as a series on a testing processor, a search processor searches an activity log of a device targeted by the security tests for indicators of each test. The searches may execute in parallel with the tests on their respective processors. A test result for a test thereby reflects both the search result and the response of a security device to the execution of the test.

Abstract: Provided are a method and system for handling northbound fault event reporting for the FM MS. The method, may be performed by at least one processor for reporting data to a northbound management system (NBMS), the method including: receiving, by a fault reporting microservice (FR MS) from an Fault Management microservice (FM MS) of a first Radio Access Network (RAN) Network Function (NF), first data comprising fault event data, the FR MS being a host level MS; and reporting, from the FR MS to the NBMS, the first data.

Abstract: A base station for securing network traffic using Internet Protocol Security (IPSec) tunnels in a telecommunication network is disclosed. The base station includes a transport manager container that handles network traffic terminations of network interfaces. The base station further includes an internet protocol (IP) security tunnel management container that exchanges one or more IKE parameters between a source IKE daemon unit deployed at the at least one POD and a destination IKE daemon unit deployed at the peer node. Further, the IP security tunnel management container (a) authenticates the peer node based on the extracted IKE parameters, (b) configure the source IKE daemon unit based on the extracted one or more IKE parameters upon successful authentication of the peer node, and (c) create at least one IP security tunnel between the at least one POD and the peer node, based on the updated security data tables in a network kernel.

Abstract: Embodiments are directed to a method for predicting a location of user equipment (UE) (500) in a wireless communication network. The method includes receiving, by a Near-Real time RAN Intelligent Controller (Near RT RIC) (100), collated UE measurements associated with the UE (500), from an access node (1000) over an E2 interface. The collated UE measurements is determined based on a plurality of UE measurements associated with the UE (500) sent by at least three transmission receipt points (TRPs) (600a-c) to the access node (1000). The method also includes inputting, by the Near RT RIC (100), the collated UE measurements to a location prediction model (184) located at the Near RT RIC (100); and predicting, by the Near RT RIC (100), a location of the UE (500) by the location prediction model (184) based on the collated UE measurements.

Abstract: Embodiments herein provide a method for prioritizing booming cells in a wireless network by an electronic device. The method includes receiving information about a plurality of booming cells. Further, the method includes determining a priority for each booming cell of the plurality of booming cells based on a morphology factor, a PRB utilization factor, a RRC connected users factor, a booming distance, and a user density factor. Further, the method includes prioritizing the plurality of booming cells for mitigation based on the priority for each booming cell of the plurality of booming cells.

Abstract: Techniques for receiving a PUSCH and a PUCCH transmitted by a high speed transmitter are provided including calculating a phase difference of OFDM symbols of the PUCCH from: OFDM symbols of a first and second DM-RS, OFDM symbols of the second and third DM-RS, and OFDM symbols of the first and third DM-RS. Correlating the OFDM symbols across all the DM-RS. Determining a doppler shift which is reported to Layer 2. Compensating channel estimates and data symbols with the doppler shift. Performing a first level of phase correction on the PUSCH by correcting the phase on output samples of an IDFT from the doppler shift received from Layer 2. Measuring a phase deviation on the output of the first level of phase correction, and accumulating the measured phase deviation and the received doppler shift. Reporting the accumulated phase correction to Layer 2, and performing a second level of phase correction.

Abstract: A method of identifying call muting areas includes dividing a network cluster into a plurality of grids, determining a call muting percentage of at least one first grid of the plurality of grids, determining whether the call muting percentage of the at least one first grid is greater than a predetermined call muting percentage threshold, and generating at least one call muting polygon including at least a portion of the at least one first grid based on determining that the call muting percentage of the at least one first grid is greater than the predetermined call muting percentage threshold

Abstract: A method, system, apparatus, and computer-readable medium for trading telecommunications related services on a centralized marketplace network. The method includes: receiving a user request of a first user to access the centralized marketplace; authenticating, based on the received user request, the first user; obtaining product information of a product of the authenticated first user based on a predetermined onboarding policy, the product being a virtualized network service for a telecommunications network; obtaining, based on the predetermined onboarding policy, the product for performing one or more onboarding tests of the product in a test environment of the centralized marketplace; obtaining status information of the one or more onboarding tests; and presenting the product for purchase in the central marketplace based on a result of the one or more onboarding tests.

Abstract: A method, performed by at least one processor of a computing device, for recommending an event, the method including determining a frequency of execution of the event by a user among a plurality of users; determining an inverse user frequency of execution of the event based on the plurality of users who have executed the event; generating a recommendation factor by modifying the frequency of execution of the event by the user based on the inverse user frequency of execution of the event; and outputting a recommendation for the event based on the recommendation factor.

Abstract: Embodiments herein provide a method for prioritizing service gaps in a wireless network (1000) by an electronic device (100). The method includes receiving information about a plurality of service gaps. Further, the method includes determining a priority for each service gap of the plurality of service gaps based on an area factor, a morphology factor, a RSRP bad samples factor, and a user density factor of each service gap of the plurality of service gaps. Further, the method includes prioritizing the plurality of service gaps for mitigation based on the priority for each service gap of the plurality of service gaps.

Abstract: A data payload is generated to describe an event, and includes a priority value indicating a level of urgency for response. Text-based notifications are generated to have text content based on the payload contents and formatted according to a format standard for one or more text transmission services, and then transmitted to user devices. Additionally, audio-based notifications, having audio content based on the payload contents, are selectively generated and transmitted based on the priority value of the data payload, on an elapsing of a time duration associated with the priority value of the data payload, and on acknowledgment states of the user devices. In this manner, a two-stage event notification providing both text-based notifications and escalated audio-based notifications is achieved.

Abstract: An apparatus, the apparatus includes a distributed unit (O-DU), the O-DU configured to receive, from a radio unit (O-RU), configuration capability information for implementing a sleep mode and/or a TRx control method via management plane (M-Plane) messaging. The O-DU receives, from a higher layer network function, a request to reconfigure an antenna array. The O-DU determines a sleep mode type and/or a TRx control method supported by the O-RU based on the configuration capability information from the O-RU and based on the request to reconfigure the antenna array from the higher layer network function. The O-DU applies the supported sleep mode type and/or TRx control method via a control plane (C-Plane) messaging or M-Plane messaging to the O-RU based on the supported sleep mode type and/or TRx control method.

Abstract: A network management system includes a non-transitory computer readable medium configured to store instructions thereon. The network management system further includes a processor connected to the non-transitory computer readable medium. The processor is configured to execute the instructions for receiving first log data from a first component in a network, wherein the first log data includes first log information; and parsing the first log data using a trained neural network to define parsed log data, wherein parsing the first log data includes organizing the first log information into a predefined sequence of information, and the parsed log data includes at least a signal source and a signal message. The processor is configured to execute the instructions for generating a unified model language (UML) diagram based on the parsed log data; and determining whether an error is present in the first component based on the UML diagram.

Abstract: A method for setting access rights to project data in an application by defining an area of authority for a user, includes: determining a plurality of fields of data for a project in the application; determining a topology of one or more fields, from among the determined plurality of fields, for which the area of authority is to be settable; setting an area of authority for a registered user of the application, based on a field of the determined topology; and preventing access by the registered user to data for which a value of the field does not comply with the set area of authority.