Abstract: This disclosure provides systems, methods, and apparatuses for adjusting an encoding timing or a decoding timing in a manner that minimizes disruption of ongoing uplink or downlink traffic. Some aspects more specifically relate to decoupling adjustment of the encoding timing and adjustment the decoding timing to enable independent adjustment of the encoding timing or the decoding timing. In some aspects, a user equipment (UE) may perform adjustment of the encoding timing, relative to an active time indicated by a discontinuous reception (DRX) configuration, at a time at which uplink traffic is absent. Additionally, or alternatively, the UE may perform adjustment of the decoding timing, relative to an active time indicated by a DRX configuration, at a time at which downlink traffic is absent. Accordingly, upon receiving a DRX configuration, the UE may wait until a period in which uplink traffic or downlink traffic is absent to perform a timing adjustment.

Abstract: A method for beam management in side-link communication between User Equipment (UEs) (104) operating in a wireless communication network (100) is described. The method comprises transmitting a reference signal using at least one beam by a first UE (104-1). The first UE (104-1) receives a feedback report of the at least one beam based on the reference signal from the second UE (104-2, 104-4). The feedback report of the at least one beam comprises at least one of UE identifier (ID), beam ID, beam strength, and beam validity. The first UE (104-1) updates entries of a beam management table based on the feedback report.

Abstract: An example method comprises, receiving resource availability values from the plurality of Network Interface Cards (NICs); determining a data path for data packets of a flow transported using a protocol from a source NIC to a destination NIC via a NIC set that comprises at least one NIC, wherein: the plurality of NICs comprises the source NIC, the destination NIC, and the NIC set, and determining the data path comprises selecting the NIC set based on the resource availability values; and transmitting, to the source NIC and to each NIC in the NIC set, data path data to cause the source NIC and each NIC in the NIC set to identify the data packets of the flow using an identifier of the protocol and to transmit the data packets of the flow from the source NIC to the destination NIC via the data path.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may establish a first communication connection associated with a first subscription or associated with a first network slice, wherein the first communication connection is a default connection for the UE for data traffic. The UE may establish a second communication connection associated with a second subscription or associated with a second network slice. The UE may receive, from a device via a wireless local area network provided by the UE or via a wired connection, a data traffic packet associated with one or more parameters. The UE may route the data traffic packet to the second communication connection based at least in part on the one or more parameters. The UE may transmit the data traffic packet using the second communication connection. Numerous other aspects are described.

Abstract: Provided is a circuit having a first input configured receive first data, a second input coupled configured to receive second data, a clock input configured to receive a clock signal during a first time period, the clock signal having a triggering edge during the first time period and an output. The circuit is configured to, before the first time period commences, output the first data over the output and in response to receiving the clock signal having the triggering edge during the first time period, output the second data over the output and refrain from outputting the first data.

Abstract: Various examples in accordance with the present disclosure provide example methods, systems, and apparatuses that may reduce direct current (DC) bias in biased signal inputs. For example, an example system includes a signal operator and an adaptive filter. The signal operator receives a biased signal input. The adaptive filter provides an estimated bias parameter to the signal operator. The signal operator generates an unbiased signal output based at least in part on the biased signal input and the estimated bias parameter.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may identify an indication of an occurrence of a handover. The UE may adjust a delay used by a buffer based at least in part on the indication of the occurrence of the handover. The UE may process one or more packets of the buffer based at least in part on the adjustment of the delay used by the buffer. Numerous other aspects are described.

Abstract: An example system comprises a plurality of servers comprising respective network interface cards (NICs) connected by physical links in a physical topology, wherein each NIC of the plurality of NICs comprises an embedded switch and a processing unit coupled to the embedded switch; and an edge services controller configured to program the processing unit of a network interface card of the plurality of network interface cards to: receive, at a first network interface of the NIC, a data packet from a physical device; based on the data packet being received at the first network interface, modify the data packet to generate a modified data packet; and output the modified data packet to the physical device via a second network interface of the NIC.

Abstract: Wireless communications systems and methods related to video telephony are provided. A device may proactively reduce the bitrate at which video is encoded at the beginning of a video call based on one or more radio metrics. Radio metrics used may include received signal strength indicator (RSSI), received signal received quality (RSRQ), received signal received power (RSRP), signal to noise ratio (SNR), power headroom (PHR), and block error rate (BER). The proactive reduction in bitrate is done prior to transmitting or receiving video data. The device may also request that a second device which is transmitting video do so at a reduced bitrate.

Abstract: The present disclosure envisages a system (100) and method for creating thematic layers for network analysis. The system (100) allows users to create thematic layers with dynamic data in real-time based on user interaction. The system includes an input unit, a plurality of data sources, and a processing unit. The input unit receives a request from a user. Each data source stores a plurality of information corresponding to a plurality of performance attributes associated with a network. The processing unit is configured to extract information corresponding to the received request and process the extracted information for generating the at least one thematic layer. The system (100) uses the data sources (104), including performance management, site, cells, configuration management, and fault management to create the thematic layers. The user is able to customize the layers to highlight specific data points, adjust color schemes, and incorporate animations for an added impact.

Abstract: The present disclosure method (600) for evaluating performance of one or more user devices (106) in a network (108). The method comprising identifying (602) a geographical region, identifying (604) one or more user devices (106) communicatively coupled to the network (108) in the geographical region and receiving (606) a sample data related to parameters associated with the one or more user devices (106). The method comprising receiving (608) a threshold value related to each parameter of the parameters for the evaluation, obtaining (610) a weightage value associated with each parameter. The method comprising calculating (612) a score for each of the one or more user devices (106) using the one or more parameters based on a processing of the sample data, the threshold value, and the weightage value corresponding to each parameter and evaluating (614) the performance of the one or more user devices (106) based on the calculated score.

Abstract: The present disclosure provides a system (108) and a method (300) for analysing network performance based on location. The system utilizes precise latitude and longitude coordinates, the system provides accurate insights into performance of specific areas, enabling operators to identify and address area-specific network issues effectively. The system allows for proactive issue identification, helping operators prevent customer dissatisfaction and enhance overall network performance by identifying network issues such as barring, coverage, outage, congestion, and interference, enabling operators to optimize the network in those areas and improve customer satisfaction. Additionally, the system provides valuable information to customer care agents, allowing them to assist customers accurately regarding network issues and resolutions.

Abstract: Low-performing cells, serving a telecom deployment in a given geographical area, are commonly identified by the telecom operators based on one or more Network KPIs computed for each of the cells being part of the deployment. However, most of these KPIs describe the overall state of affairs of the cell without any insight into the user usage profile of the cell. The present disclosure proposes a novel method to adjust the network KPIs based on scores of the macro cell or the small cell (101) with the user usage profile of the cell to obtain the user correlated network scores of the cells and prioritize the low-performing cells in the network in order of degree of impact on users and their usage. Another aspect of this disclosure is that it shall predict and compute a realistic user score to get predictive insights into user profiles for solutions and preventive measures.

Abstract: The disclosed system and method implement a user interface (UI) design for displaying a site icon which provides all key information about cellular sites. The information is related to such as technology, band, number of sectors, number of cells, number of carriers, number of bi-sectors, and the like. In addition, the information is represented with minimum UI elements.

Abstract: The present invention discloses a system (108) and method for analyzing and visualizing data in context of a telecom network The system (108) allows drive test data from various sources to be efficiently parsed, translated, and validated 5 using a data parser module (212), a translator module (216), and a validator module (214) for each individual drive test data source. The processed data from each drive test data source is subsequently stored in a centralized database (210). The system enables the execution of separate processing jobs aimed at visualizing drive test data from multiple sources across different layers. The visualization aspect provides 10 valuable insights into the performance and characteristics of the telecom network, facilitating enhanced analysis and decision-making processes.

Abstract: The present disclosure envisages a system (110) and a method (300) for azimuth planning The system (110) automates the process of azimuth estimation by providing a simple web interface where a user (102) can provide input site locations 5 pertaining to multiple site locations. The system (110) utilizes multiple site locations and automatically generates azimuth estimation and planning. The system (110) automates the entire process of ingesting huge crowdsource data, geospatial data, generating predictions and an analysis for estimating optimal sites during network planning.

Abstract: The disclosed system and method enables auto validation of initial nominals generated from capacity and strategy data sets to obtain an optimal list of sites and cell configurations. The disclosed system and method automates the process of nominal validation by providing a simple web interface on which requirements for a geography are received thus automating an entire process of ingesting huge crowd sourced data, geospatial data and doing predictions and analysis for obtaining the optimal sites.

Abstract: The present disclosure provides a system and a method for automatic topographic interference detection and mitigation based on network data. The system identifies aggressor/source cells from base stations based on various parameters. The system groups the source cells into a high, a medium, and a low state, and applies a radio frequency (RF) tilt and associated power attenuation on the frequency division duplex (FDD) and the time division duplex (TDD) cells of multiple regions for a predetermined period. The system predicts interferences associated with the source cells based on the parameters. Further, the system dynamically updates the RF tilt and the associated power attenuation for the predetermined period. The system determines a decrease in the automatic topographic interference and reverts the RF tilt and the associated power attenuation for the source cells.

Abstract: The disclosed system (100) and method (1200) for data visualization and management in a telecommunication network is disclosed. The system incorporates one or more processors that receive user inputs for identifying network nodes. A unified user interface (UI) (102) is employed to present a spider view menu with multiple segments corresponding to pre-processed data categories, including alarms (104), key performance indicators (KPIs) (106), properties (108), capacity (110), and configuration (112). The data is sourced from a database (103) linked to the processors (105). The UI (102) is designed to offer one-click access to detailed data, eliminating the need for multiple logins. It also features real-time updates and displays information, color-coded for distinction, enabling interactive engagement with the data. The processors are adept at synchronizing the management of diverse network node types, hardware vendors, and server systems, streamlining network operations and oversight.

Abstract: The present invention discloses a method for providing a centralized network master database lake (128). The method receives and stores input data, identifies a plurality of attributes associated with the input data, processes the input data to categorize the input data into a plurality of predefined data categories based on the plurality of attributes, and processes the categorized input data to determine if a record associated with the categorized input data exist in the centralized network master database lake (128). The method (1200) updates the record with the categorized input data when it is determined that the record exists, creating a new record to store the categorized input data into the centralized network master database lake (128) when it is determined that the record does not exist and processing the record to dynamically display the categorized input data.