Abstract: The present disclosure provides a robust and effective solution to an entity or an organization by enabling the entity to implement a system for 3D vision, and synthetic data generation of a retail product model. Further, the present disclosure aims at generating high-quality, photorealistic, large-scale domain-specific synthetic data. The system is equipped with synthetic simulation, digital twin creation, and synthetic data generation with automated annotations. Additionally, the system allows the training of artificial intelligence to reduce manual efforts and to facilitate the automation and personalization.

Abstract: The present disclosure provides system (102) and method (300) for evaluating cellular sites through a mobile application. The system (102) employs one or more processors to initiate a sequence of performance tests, such as speed, video quality, web performance, and traceroute tests. A data acquisition module determines the match between site location identifiers, such as NCI, Cell ID, and PCI, and the device-measured identifiers. A global positioning system (GPS) module ensures the testing device's proximity to the cellular site. Test results are compared against predefined Key Performance Indicators (KPIs) for latency, download, and upload speeds by a verification module. The processors then ascertain if the tests satisfy the KPIs. An interface within the application allows for the re-performance of tests if KPIs are not met and displays the overall pass or fail status of the cellular site, streamlining the site assessment process for field engineers.

Abstract: The present disclosure is related to a method of selecting at least one bandwidth part for a user equipment (UE) (204) connected to a network (203). The method includes receiving a radio resource control (RRC) connection setup request from the UE (204). The method includes checking an establishment cause associated with the received RRC connection setup request. The method comprises configuring a plurality of bandwidth parts based on the checked establishment cause. The method includes selecting at least one bandwidth part from the plurality of configured bandwidth parts. The method includes allocating, to the UE (204), the at least one selected bandwidth part. The method includes transmitting, to the UE (204), an RRC reconfiguration message comprising the allocated at least one bandwidth part and attaching the UE (204) to the allocated at least one bandwidth part.

Abstract: The present disclosure provides a system and a method for monitoring hardware alarms in a radio system. The present disclosure enables real-time monitoring of Radio Frequency (RF) chains output power, and failures in Fifth Generation (5G) New Radio (NR) system without a need of any external measurement device. The present disclosure may improve 5G radio system performance and reliability by monitoring high, low transmit power, and chain failure in the radio system. The present disclosure determines the reflections occurring at an output port of a power amplifier under high power condition till an antenna port.

Abstract: The present invention provides a robust and effective solution to an entity or an organization by enabling them to implement a system for swapping one or more faces without any explicit training on the one or more faces. The proposed method can be further implemented in real time.

Abstract: The disclosed system and method enables communication of 5G Non-Access Stratum (NAS) messages in a communication network. In a 5G network, a Short Message Service Function (SMSF) (100) enables transfer of SMS over the NAS and the SMSF relays message between a User Equipment (UE) and a Short Message Service Center (SMSC) through Access and Mobility Management Function (AMF). The SMSF serves as an interface and a bridge between the 5G core network and a traditional SMSC for receiving and sending 5G NAS messages. The SMSF (100) offers services to the AMF via an Nsmsf service based interface.

Abstract: The present disclosure provides a system (110) and a method for centralized lawful interception in a network. The system (110) is a cost effective and centralized solution that helps in streamlining of LI provisioning to a single network function (NF) or a cluster of NFs efficiently, as all the provisioning requests will be handled and limited to a centralized lawful interception function (CLIF) (112) only and will not be extended to NFs. All procedures pertaining to the provisioning and interception will be offloaded to the CLIF (112) and application.

Abstract: The present invention discloses a system and method for automated Bi-Sector Antenna (BSA) deployment that addresses network capacity crunch issues in multiple sectors within a specific site The system receives data corresponding to the multiple sectors, and each sector consists of cells with same azimuth angle. The data includes various parameters associated with each cell, such as physical resource blocks (PRB), average RRC-connected users, IP throughput, network traffic, and other relevant parameters. Using advanced algorithms, the system determines a set of sectors where the parameters associated with at least one cell cross a predetermined threshold, indicating capacity crunch issues. Upon identification of the set of sectors, the system evaluates whether they meet a predefined set of attributes necessary for BSA deployment, and if the predefined attributes are satisfied, the system generates and transmits signals indicating the need for BSA deployment in the identified sectors.

Abstract: The present disclosure provides a system (108) and a method for coverage hole detection in a network. The system (108) receives a data associated with the one or more computing devices from a server. The data includes value corresponding to radio frequency (RF) parameter from various users. The system (108) visualizes polygon boundaries associated with the data within a predefined grid. Further, the system (108) bifurcates the polygon boundaries into a parent polygon and a child polygon based on an area of intersection between the parent polygon and the child polygon.

Abstract: The present disclosure provides a system and method for network slice admission control (NSAC). The system includes an NSAC controller comprising an in-instance cache to count the number of user equipment (UE)/packet data unit (PDU) session when numerous UE/PDU sessions are associated with the same network slice. The data from the in-instance cache are synced periodically to a database to ensure consistency between the cached data and the database. The NSAC controller may include a standby instance of NSACF, ensuring high availability (HA) to serve UE/PDU requests with its own in-instance cache during a switch-over.

Abstract: The present disclosure provides a system (108) and method (500) for image authenticity to verify the originality of images by checking metadata information. The system receives an image(s) from a user. An analyzing unit of the system extracts a set of metadata from the image and analyzes the extracted set of metadata to identify modifications to the image. A validation unit generates validation blocks of timestamps of modifications based on the identification. The analyzing unit analyses the modification and the validation blocks to assess the authenticity of the received image file. A processing unit verifies the authenticity of the received image file based on the analysis.

Abstract: The disclosed system and method are configured to perform functionalities for providing a Binding Support Function (BSF) (2000). The BSF (2000) is a network entity in a 5G Core Network (5GC) and stores binding information for a certain Protocol Data Unit (PDU) session and enables discovery of binding information (e.g., the address information of a selected Point coordination function (PCF) (1508).

Abstract: The present disclosure generally relates to wireless communication systems, more particularly to network device and method for universal Central exchange (Centrex). Network device receives short code dialed by first user from a first user device to a second user device, the second user device to the second user device, and Inter/Intra circle first user device. Further, the network device determines, if received short code is SIP trunking code or IP Centrix/Centrex code, and converts the received short code to relevant Uniform Resource Identifier (URI). Thereafter, the network device performs E. 164 number to URI mapping (ENUM) or Mobile Number Portability (MNP) for the URI, and transmits the SIP INVITE request for inviting the second associated with first user device for session. Further, network device processes call between first user and second user, based on receiving call by second user.

Abstract: Present disclosure generally relates to wireless telecommunication networks, and more particularly relates to systems and methods for inter radio intelligent controller communication. The system and methods realize an inter Near-RT RIC communication to enable the near real-time control and optimization of E2 Nodes across an entire Heterogeneous Networks (HetNets) irrespective of number of Near-RT RICs deployed. Embodiments herein provides different architectural options to enable Inter Near-RT RIC communications. Embodiments herein provides specific mechanisms of data exchange and the associated procedures.

Abstract: The present disclosure provides a system (134) and a method for application specific scheduling in an Open Radio Access Network (ORAN). The system (134) receives data timing information associated with one or more user equipments (UEs) (108) coupled to the ORAN via a Lightweight Application Function (LAF) (102). The LAF (102) is configured to receive the data timing information from an AF (110) configured in a core network (114). The system (134) determines if uplink synchronization is established between the ORAN (104) and the one or more UEs (108), and in response to a positive determination, transmits scheduling information to the one or more UEs (108) from the ORAN (104). The system (134) allocates one or more resource blocks (RBs) to the one or more UEs (108) and enables data transfer between the ORAN (104) and the one or more UEs (108).

Abstract: The present invention provides a system and method to create a multi attribute based data synthesis. The method includes obtaining an input image, where the input image includes a human wearing an apparel in a foreground and a scene in a background, detecting the human in the input image, detecting a face region of the human in the input image, generating a body-ratio-heuristics for the input image, generating a set of mask labels associated with the input image, and performing a domain randomization of the input image to generate a plurality of images to create the image database.

Abstract: The present disclosure provides system (102) and method (300) for enabling speed test of internet connection using a mobile application. The mobile application selects an appropriate server and initiates the data transfer by sending and receiving packets of data to and from the server. The data size and duration of the test can vary, but larger sample sizes generally provide more accurate results therefore multiple threads with increasing buffer size are used during the test time. The system measures the time it takes for the data transfer to complete in both the upload and download directions. The timing is crucial for determining the speeds. A speed test empowers users with the ability to measure, evaluate, and understand the performance of the internet connection. Thus, enabling the users to make informed decisions and ensure they receive reliable and satisfactory internet service.

Abstract: The present disclosure provides a system and a method for transferring subscriber identifier attribute of label units (110) on replacement. The system includes one or more label units (110) attached to a corresponding object (106) from one or more objects in transit, a first label unit (110-1) replaced by a second label unit (110-2) when said first label unit (110-1) is damaged, wherein a subscriber identifier attribute of the first label unit (110-1) is transferred to the second label unit (110-2) after said replacement. The system includes a tracking system (102) that receives a second set of signals from the second label unit (110-2), updates a database (210) coupled to the tracking system (102) with the second set of unique identifier attributes of the second label unit (110-2), and tracks the objects (106) by receiving one or more tracking and monitoring data from the second label unit (110-2).

Abstract: The present disclosure provides a system (108) and a method for identifying failures in a wireless network. The system (108) receives input data from one or more entities (110). The system (108) extracts a plurality of parameters from the input data. The system (108) correlates the plurality of parameters with data stored in one or more data sources associated with the system (108). The system (108) generates a summary report based on the correlation, and identifies the failures in the wireless network based on the summary report.

Abstract: The present disclosure provides a system (108) and a method for application specific scheduling in wireless networks. The system (108) receives data timing information associated with user equipments (UEs) (112) from an application server (AS) (102). The data timing information includes an identifier associated with the UEs (112). The system (108) determines if uplink synchronization is established between a Radio Access Network (RAN) (104) and the UEs (112), and transmits scheduling information to the UEs (112) from the RAN (104). The system (108) allocates resource blocks (RBs) to the UEs (112) based on the scheduling information. The system (108) receives data from the UEs (112) in an uplink (UL) direction, where the scheduling information includes a periodicity associated with the allocation of the RBs.