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How integrate edge computing in the context of 5G? 


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To integrate edge computing in the context of 5G, the proposed approach is to combine Software-Defined Networking (SDN) and cloud virtualization techniques, such as containers, with the Multi-access Edge Computing (MEC) architecture and the 5G/6G core system. This integration enables flexible management of computing resources and rapid adaptation to critical end-user requirements . The aim is to provide end-to-end mobility support, ensuring service continuity when end-users move from one MEC to another while guaranteeing the necessary service delay . The proposed architecture has been verified through simulations, highlighting the benefits of centralized network intelligence and the modularity and portability offered by SDNs and containers . Additionally, the integration of edge and far-edge resources in an ETSI MEC-compliant architecture extends the pool of virtualized resources available at MEC nodes, allowing vehicle entities to access and participate in a negotiation process while addressing resource volatility . Experimental validation in a 5G network setting demonstrates the potential of dynamically exploiting far-edge vehicular resources .

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The paper proposes a novel ETSI MEC-compliant architecture that integrates edge computing in the context of 5G by extending the pool of virtualized resources available at MEC nodes with vehicular ones found in the vicinity.
The paper proposes a novel ETSI MEC-compliant architecture that integrates edge computing in the context of 5G by extending the pool of virtualized resources available at MEC nodes with vehicular ones found in the vicinity.
The paper discusses the integration of edge computing in the context of 5G networks by creating a Multi-access Edge Computing (MEC) environment.
The paper proposes integrating Software-Defined Networking (SDN) and cloud virtualization techniques, such as containers, with the Multiple Access Edge Computing (MEC) architecture and the 5G/6G core system to enable flexible management of computing resources and rapid adaptation to critical end-user requirements.
The paper proposes integrating Software-Defined Networking (SDN) and cloud virtualization techniques, such as containers, with the Multiple Access Edge Computing (MEC) architecture and the 5G/6G core system to enable flexible management of computing resources and rapid adaptation to critical end-user requirements.

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