Enhancing Secure Data Transmission in Wireless Fog Networks through Software-Defined Networking Solutions
Keywords:
Software Defined Network, Wireless Fog Networks, Secure Data Transmission, Routing Protocol, Trust IdentityAbstract
The centralised control intelligence in the next-generation networking architecture of Software-Defined Networks (SDN) is what gives them their strength. SDN's control plane can be extended to a variety of underlying networks, including fog and the Internet of Things (IoT). Real-time data management is currently possible with the fog-to-IoT architecture. However, most fog-to-IoT devices are geographically dispersed and have limited resources, which leaves them open to cyber attacks. Recently, a unique cyber foraging approach has emerged to shift heavy workloads from mobile devices to mobile cloudlets situated close to end users. Because wireless one-hop communication is common near the network edge, wireless mesh networks(WMNs) are being investigated as a potential solution for developing wireless fog networks. On the other hand, the global network administration and monitoring capabilities that fog networks require are limited by the distributed hop-by-hop routing protocols that WMNs utilize to depict apartial picture of the network. SDN is a great fit for fog-based communication systems since it enables centralized control and management of the entire network. The SDN Open Flow protocol is primarily meant for wired networks hence, it doesn’t enable wireless fog networks. This paper proposes a novel trust-based identity model for the Internet of Things architecture for handling fog networks (TbI-IoT-FN) to provide safe data transmission in the network, combining the benefits of fog computing and software-defined networking. In software-defined networking, sophisticated algorithms for resource management and traffic control can be implemented thanks to a logically centralized network control plane. When comparing the suggested model to the current model, the findings show that the proposed model performs at a higher level.
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