Elephant flow detection intelligence for software-defined networks: a survey on current techniques and future direction
Software-defined networking (SDN) is characterized by the separation of the packet forwarding plane from the network control plane. This separation offers an extensive view of the network’s state, enhancing network resilience and management. Network traffic classification can improve SDN control and...
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description | Software-defined networking (SDN) is characterized by the separation of the packet forwarding plane from the network control plane. This separation offers an extensive view of the network’s state, enhancing network resilience and management. Network traffic classification can improve SDN control and resource provisioning, particularly for elephant flows (EFs) detection. Existing techniques for detecting EFs utilize preset thresholds and bandwidth that are inadequate for changing traffic concepts. Moreover, these techniques consume high data plane-controller bandwidth and have a high detection time. This research first describes the related management techniques in SDN. Then according to the detecting location, elephant flow detection approaches are classified into four kinds: host-based, switch-based, controller-based, and hybrid controller-switch-based detection. This research examined four types of detection approaches and concluded that host-based detection primarily relies on the flow statistics threshold. Such approaches frequently gather flow statistics by monitoring the socket buffer or via the hypervisor. In contrast, switch-based detection can leverage both the flow statistics threshold and flow characteristics. Controller-based detection techniques in SDN focus on extracting flow feature statistics at the controller level, aiming to reduce switch overhead while potentially increasing controller loads. Finally, hybrid controller-switch-based detection combines both routing aspects, offering fine-grained flow control. However it faces challenges in maintaining a balance in timeliness, accuracy, and cost. Furthermore, the survey incorporates recent SDN advancements such as machine learning-based methods, programmable switches, and real-world SDN applications in data centers, global content delivery networks, healthcare, and IoT. Finally, the article makes a comprehensive comparison and puts forward several points of future prediction in terms of elephant flow detection, taking into account recent advances in SDN research. |
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Then according to the detecting location, elephant flow detection approaches are classified into four kinds: host-based, switch-based, controller-based, and hybrid controller-switch-based detection. This research examined four types of detection approaches and concluded that host-based detection primarily relies on the flow statistics threshold. Such approaches frequently gather flow statistics by monitoring the socket buffer or via the hypervisor. In contrast, switch-based detection can leverage both the flow statistics threshold and flow characteristics. Controller-based detection techniques in SDN focus on extracting flow feature statistics at the controller level, aiming to reduce switch overhead while potentially increasing controller loads. Finally, hybrid controller-switch-based detection combines both routing aspects, offering fine-grained flow control. However it faces challenges in maintaining a balance in timeliness, accuracy, and cost. Furthermore, the survey incorporates recent SDN advancements such as machine learning-based methods, programmable switches, and real-world SDN applications in data centers, global content delivery networks, healthcare, and IoT. 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Intel</stitle><date>2024-08-01</date><risdate>2024</risdate><volume>17</volume><issue>4</issue><spage>2125</spage><epage>2143</epage><pages>2125-2143</pages><issn>1864-5909</issn><eissn>1864-5917</eissn><abstract>Software-defined networking (SDN) is characterized by the separation of the packet forwarding plane from the network control plane. This separation offers an extensive view of the network’s state, enhancing network resilience and management. Network traffic classification can improve SDN control and resource provisioning, particularly for elephant flows (EFs) detection. Existing techniques for detecting EFs utilize preset thresholds and bandwidth that are inadequate for changing traffic concepts. Moreover, these techniques consume high data plane-controller bandwidth and have a high detection time. This research first describes the related management techniques in SDN. 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subjects | Applications of Mathematics Artificial Intelligence Bandwidths Bioinformatics Communications traffic Control Controllers Elephants Engineering Flow characteristics Flow control Machine learning Mathematical and Computational Engineering Mechatronics Network control Provisioning Resource allocation Review Article Robotics Separation Software Software-defined networking Statistical Physics and Dynamical Systems Statistics Traffic control |
title | Elephant flow detection intelligence for software-defined networks: a survey on current techniques and future direction |
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