通过SDN实现高效的物联网设备连接和动态网络管理:加权和方法

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引用次数: 0

摘要

SDN支持的物联网网络通过将软件定义网络(SDN)的核心原则集成到物联网(IoT)领域,为传统网络模型带来了革命性的转变。通过这种集成,可以灵活有效地管理物联网设备,实现顺畅的连接、优化的资源分配和灵活的网络设置。通过整合控制和利用虚拟化方法,支持sdn的物联网网络增强了可扩展性、安全性和实时响应能力。这解决了物联网设备广泛扩散所带来的障碍。这种模式的转变预示着一个全新的互联时代的到来,SDN将在协调物联网设备和服务之间复杂的相互作用方面发挥核心作用。物联网(IoT)设备的快速扩展为监督网络和建立连接带来了前所未有的复杂性。这就需要创造性的策略来有效地管理大量涌现的物联网设备及其不断变化的连接先决条件。软件定义网络(SDN)通过实现网络的灵活管理和资源分配,成为解决这些问题的一种很有前途的方法。本研究探讨了物联网领域内SDN的融合,旨在简化设备连接,优化数据传输效率,并适应适应性网络设置。这项工作引入了一种创新的加权和技术来优化资源分配,为增强物联网网络性能和可扩展性的综合框架奠定了基础。研究了四种不同的SDN实现,包括传统物联网网络、使用集中控制的SDN支持的物联网、使用分布式控制的SDN支持的物联网、使用分层控制的SDN支持的物联网和使用混合控制的SDN支持的物联网。评估考虑了多个方面,如增强的可伸缩性、增强的流量工程、增强的安全性、实现的复杂性、迁移的难度以及对供应商的依赖。传统物联网网络以0.56030的偏好得分稳居第三,而支持sdn的集中控制物联网以0.49732排名第五,尽管在特定领域表现出色。基于sdn的分布式控制物联网凭借其综合性能以0.79414的显著偏好得分排名第一,其次是基于sdn的分层控制物联网获得第二名(偏好得分:0.57022),基于sdn的混合控制物联网获得第四名(偏好得分:0.51300),特别是在流量工程方面表现出色。
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Enabling Efficient IoT Device Connectivity and Dynamic Network Management through SDN: A Weighted Sum Method Approach
SDN-Enabled IoT Networks bring about a transformative shift in conventional network models by integrating the core principles of Software-Defined Networking (SDN) into the realm of the Internet of Things (IoT). This integration empowers the agile and effective management of IoT devices, facilitating smooth connectivity, optimized distribution of resources, and flexible network setups. Through the consolidation of control and the utilization of virtualization methods, SDN-Enabled IoT Networks amplify scalability, security, and real-time responsiveness. This addresses the obstacles presented by the extensive proliferation of IoT devices. This paradigm transition heralds a fresh era of interconnectedness, where SDN assumes a central role in harmonizing the intricate interplay of IoT devices and services. The rapid expansion of Internet of Things (IoT) devices has introduced unparalleled complexities in overseeing networks and establishing connections. This compels the need for inventive strategies to effectively manage the substantial surge of IoT devices and their ever-changing connectivity prerequisites. Software-Defined Networking (SDN) emerges as a promising approach to tackle these issues by enabling the flexible management of networks and allocation of resources. This study investigates the amalgamation of SDN within the realm of IoT, aiming to streamline device connections, optimize data transmission efficiency, and accommodate adaptable network setups. Introducing an innovative weighted sum technique for resource allocation optimization, this work lays the foundation for a comprehensive framework that bolsters IoT network performance and expandability. Four different SDN implementations are examined, including the Conventional IoT Network, SDN-enabled IoT utilizing Centralized Control, SDN-enabled IoT employing Distributed Control, SDN-enabled IoT with Hierarchical Control, and SDN-enabled IoT utilizing Hybrid Control. The assessment considers various aspects such as Enhanced Scalability, Enhanced Traffic Engineering, Heightened Security, Implementation Complexity, Difficulty of Migration, and Reliance on Vendors. The Conventional IoT Network secures a moderate 3rd position with a Preference Score of 0.56030, while the SDN-enabled IoT with Centralized Control holds the 5th rank at 0.49732, despite excelling in specific domains. The SDN-enabled IoT with Distributed Control achieves the top rank with a notable Preference Score of 0.79414 due to comprehensive performance, followed by the SDN-enabled IoT with Hierarchical Control securing the 2nd spot (Preference Score: 0.57022), and the SDN-enabled IoT with Hybrid Control taking the 4th position (Preference Score: 0.51300), particularly excelling in Traffic Engineering.
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