Abstract: The present disclosure relates to a system (108) and a method for sharing sensing data in a cellular network (106). The system (108) establishes a Radio Resource Control (RRC) connection between sensing clients (104) and sensing agents (110). Upon successful establishment of the RRC connection, the system (108) determines that an aggregation type flag indicating an aggregation is enabled in a sensing aggregation entity (112) associated with the system (108). The sensing aggregation entity (112) to receive a sensing data report from each of the sensing agents (110), and facilitate aggregation of the sensing data report received from each of the sensing agents (110) in the sensing aggregation entity (112) according to service requirements. Further, the system (108) transmits a response message to the sensing clients (104) in response to the aggregation of the sensing data report.

Abstract: A cellular network architecture with a gateway node (308) acting as a hub is disclosed. The gateway node (308) deter-mines a unique User Equipment (UE) context of a UE (312) for each of a first coverage state and a second coverage state of the UE (312). The gateway node (308) dynamically saves the unique UE context. Further, the gateway node (308) shares a paging message with a Core Network (CN) (304). The unique UE context may be saved at the CN (304) to provide a seamless mobility service to the UE (312).

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 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.

Abstract: The present disclosure provides a system (210) and a method for providing a security mechanism to a User Equipment (UE) (204) in a coreless radio access network (RAN). The system (210) receives a registration request from a UE (204), where the registration request includes user subscription data. The system (210) determines if the user subscription data is available within a mobile radio unit for a specific geographic area. Based on a positive determination, the system (210) provides a security mechanism to the UE (204). Based on a negative determination, the system (210) may send a data acquisition request to at least one data source. The system (210) may receive data associated with the specific geographic area from the at least one data source, and provide the security mechanism to the UE (204) based on the received data.

Abstract: The present disclosure provides a system and a method for enabling a coreless network architecture by proposing a Radio Access Network (RAN) node for providing network coverage and services to User Equipment (UE) while not being connected or dependent on the core network. In an embodiment, the RAN node may be a mobile RAN node that forms a part of a fleet to provide network coverage and services to UEs at any geolocation as per the requirement. The disclosure also proposes mechanisms for the mobile RAN nodes to communicate amongst each other and also intermittently with the core network and data network (ISP) when available.