Abstract: The present disclosure provides system and method for performing radio quality analysis in a communication network (104). The communication network (104) includes a platform (406) that receives a first request to initiate a trace measurement across a plurality of UEs (108) associated with a node (430). In response to the first request, the platform (406) sends a start trace command to the node (430) to obtain measurement data from the plurality of UEs (108). The platform receives a second request to stop the trace measurement across the plurality of UEs (108). In response to the second request, the platform (406) sends a stop trace command to the node (430). The node (430), upon receiving the stop trace command, sends the received measurement data obtained from each of the plurality of UEs (108) to store in a database (218) associated with the communication network (104). The platform (406) analyses the stored measurement data to generate a radio quality report.

Abstract: The present disclosure provides system and method for or creating heat maps to visualize network coverage across floor plans within buildings. A floor plan database (110) is maintained for storing the details of areas designated for survey. Equipped with a boundary definition module (120), the system delineates specific zones within the floor plan. A walk test module captures precise measurement points and associated signal metrics, RSRP/RSSI, throughout the survey area. The canvas module (140) facilitates the generation of custom views and bitmap images, and manages drawing operations on the canvas. A signal strength calculation module (150) assesses the signal strength across various regions by computing and normalizing the average signal values. The heat map definition module (160) finalizes the creation of the heat map by arranging a colour gradient scheme to reflect signal intensity, thereby enabling an intuitive and analytical visualization of network distribution and strength.

Abstract: The present disclosure provides a system and a method for managing radio resource control (RRC) setup time with a scheduling request grant. The system allocates the required resources for message transmission from a user equipment (UE) (302) and sends a grant proactively, without waiting for a scheduling request (SR) from the UE (302) and allocates resources. The proactive grant with the SR reduces the delay associated with the RRC connection setup time. Further, the system allocates resource blocks (RBs) based on a learned uplink (UL) channel signal interference and noise ratio (SINR) characteristics.

Abstract: The disclosed system and method enable providing device integration in a combined centralized and distributed unit (CCDU). Updated CCDU design provides 3× Maximum Receive Unit (MRU (700)) support with a network card (e.g.: Channel Card).

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 provides a system and a method for selecting a session management function/packet gateway (SMF/PGW-C) and existing session parameters from a third-generation partnership project (3GPP) access network session. Further, the system utilizes existing session parameters for a wireless fidelity (Wi-Fi) service independent of an access point name/data network name (APN/DNN) over 4G or 5G access networks. The SMF/PGW-C will be able to use an international mobile equipment identity (IMEI) from the 3GPP Session for enforcing user equipment (UE) model/vendor specific policies through the Wi-Fi offload services. Additionally, the SMF/PGW-C will be able to use the 3GPP UE location information for applying location-based policies over the Wi-Fi network to ensure uniform policy application across 3GPP and non-3GPP access networks.

Abstract: 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.

Abstract: The present disclosure provides system (108) and method (200) for daily coverage analysis based on crowd source data. The system includes a data collection module to collect data from users across various locations, a data analysis module to analyze the collected data to identify areas with weak or no signal coverage, and a network optimization module to optimize coverage by deploying additional infrastructure or adjusting antenna configurations based on the analyzed data. The system provides valuable insights into network performance and usage trends, helping network operators plan and prioritize network upgrades and investments more effectively. The system provides proactive identification of areas with weak or no signal coverage.

Abstract: The present disclosure automatically allows a user to make voice call on a Long-Term Evolution (LTE) network when a User Equipment (UE) (104, 310, 410, 510) is not capable to make voice call on a 5G Standalone (SA) network via redirection or via Handover. The present disclosure allows the user to release the 5G SA network and redirect to measured Evolved Universal Terrestrial Radio Access (E-UTRA) Absolute Radio Frequency Channel Number (EARFCN) of LTE band to proceed an Evolved Packet System Fallback (EPSFB) call successfully, if there is unprecedented failure during the handover procedure. The present disclosure allows the user to redirect to LTE Radio Access Technology (RAT) on default frequency band configured in gNodeB (gNB) ((320, 420, 520) during an emergency voice call or when B1 measurement delayed or not received, or while the UE (104, 310, 410, 510) is active with other procedure or stuck in race conditions.

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: The present disclosure provides a system and a method for performing connectivity data flow in a network is described. A backhaul router (302) is configured for plurality of virtual local area networks (VLANs) to support indoor small cell (IDSC) connectivity for at least one of mobile network generation by creating a first set of VLANs is created in the backhaul router (302) and a 5G IDSC (300) associated with a first one of mobile network generation signalling/data packets, a second set of VLANs is created in the backhaul router (302) and a 4G IDSC (414) associated with a second one of mobile network generation signalling/data packets and bridging the second set of VLANs is bridged to the 5G IDSC (300) to allow mobile network generation packets of second one of mobile network generation from the backhaul router (302) to the 4G IDSC (414).

Abstract: The disclosed system and method for modifying a software in plurality of network nodes is described. The method comprising determining, by a process engine, a process for modifying the software of a network node. The process comprises a pre-check and firmware modification, software download, and software modification and post-check. A package comprising a set of instructions, package version information, release version information, program identities associated with the release information, and a software modification schedule information is generated by a packaging unit. The process engine communicates the process to a service engine. The service engine executes the software package based on the process and modifies a schedule for at least one network node of the plurality of network nodes.

Abstract: The present disclosure provides a system and a method for clean bloc architecture state management. The system receives one or more inputs from one or more users. The one or more inputs are triggering events based on actions of one or more users. The triggering events are button clicks or form submissions. The system processes the triggering events to perform one or more logic operations for different use cases, maintains a current state of the application and produce updated states based on the received events and the current state. The new updated states are sent back for UI updates and the process repeats as the one or more users interacts with the application, triggering new events and resulting in updated states.

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 disclosure provides a system (102) and a method (300) for enabling URL based speed test and data sharing. The web-based speed test provides a simple and user-friendly interface. The system (102) measures download and upload speeds, as well as latency, and displays the results in an easy-to-understand graph. It provides detailed results and allows users to choose different servers from different locations for testing. Web-based speed tests allow the user to compare the internet speeds with others in an area or globally. Regularly running speed tests over time can help the user monitor the stability and consistency of the internet connection, allowing tracking of any fluctuation in speed and performance. The application measures the time it takes for the data transfer to complete in both the upload and download directions. A speed test empowers users to measure, evaluate, and understand the internet connection's performance.

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 present disclosure provides system and method for indoor and outdoor benchmarking in telecom. The system includes a master handset and one or more slave handsets, connected through wireless technology such as Bluetooth or Wi-Fi, where the master handset creates a floor plan of the user premises and performs all measurements. The system generates a single benchmark report for all operators, saving time, costs, and engineer efforts. The report can be visualized on the survey dashboard, providing a comprehensive view of operators' network performance.

Abstract: The present disclosure relates to a method for performing an evolved packet system fallback (EPSFB). The present disclosure automatically allows a user to make voice call on a Long-Term Evolution (LTE) network when a user equipment (UE) (104, 310, 410) is not capable to make voice call on a 5G standalone (SA) network via redirection or via handover. The present disclosure allows the user to release the 5G SA network and redirect to measured evolved universal terrestrial radio access (E-UTRA) absolute radio frequency channel number (EARFCN) of LTE band to proceed an evolved packet system fallback (EPSFB) call successfully, if there is unprecedented failure during the handover procedure. The present disclosure allows the user to get redirected on reported frequency with best measurement when handover failed.