Further, we propose a novel architecture for the 6GS employing Software Defined Networking (SDN) technology to address these limitations.

Jan 1, 2025 · SDN, NFV, and Cloud/fog/edge computing are considered potential network architectures that will use a fully AI-based environment to support 6G networks. Currently, these architectures partially support AI and ML aspects.

To support autonomous devices in the sixth-generation (6G) and provide seamless wireless connectivity in inaccessible and hard-to-reach areas, the combination of software-defined networking (SDN) with unmanned aerial vehicles (UAVs) has already shown promises.

Oct 28, 2024 · The proposed VR-based SDN system model for 6G cellular networks facilitates centralized administration of resources, enhancing communication between VR users.

This introductory paper, including a vehicular control simulation example, suggests the possible shape of an intelligent network edge incorporating a distributed SDN for the future 6G network. Keywords— fog/edge; SDN; 6G; distributed network control

One of the key considerations in designing the security architecture for 6G is the use of Software-Defined Networking (SDN) and Network Function Virtualization (NFV) technologies. By leveraging SDN and NFV, the security architecture of 6G can benefit from enhanced flexibility, scalability, and …

Abstract: The vision for the sixth-generation (6G) network involves the integration of communication and sensing capabilities in Internet of Everything (IoE), toward enabling broader interconnection in the devices of distributed wireless sensor networks (WSNs).

Jun 23, 2024 · On that basis, we propose the novel 6G-enabled UP architecture called SUP-DTE, which integrates SDN, 6G-UPF, DRL-based TE and MANO into a hierarchical 6G-ready UP architecture.

Jul 12, 2023 · Further, we propose a novel architecture for the 6G System (6GS) employing Software Defined Networking (SDN) technology to address these limitations of the control plane.

Jul 12, 2023 · The upcoming Sixth Generation (6G) mobile communications system envisions supporting a variety of use cases with differing characteristics, e.g., very low to extremely high data rates, diverse latency needs, ultra massive connectivity, sustainable communications, ultra-wide coverage etc.