A Method of Service Function Chain Configuration to Minimize Computing and Network Resources for VNF Failures

Taniguchi, Akihiko; Shinomiya, Norihiko

doi:10.1109/tencon54134.2021.9707217

Cited by 3 publications

(1 citation statement)

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“…Furthermore, the authors suggested a method for identifying an appropriate node for placement through periodic searching of information concerning resource updates prior to VNF placement, subsequently assigning VNFs quickly upon request. Taniguchi and Shinomiya [ 29 ] proposed virtualized networks to minimize computing and network resources in the event of VNF failures. The proposed method aims to ensure sustainability against multiple VNF failures, which can cause significant damage to the network, by minimizing the cost of computing and network resources.…”

Section: Related Workmentioning

confidence: 99%

Efficient Internet-of-Things Cyberattack Depletion Using Blockchain-Enabled Software-Defined Networking and 6G Network Technology

Razaque,

Yoo,

Bektemyssova

et al. 2023

Sensors

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Low-speed internet can negatively impact incident response by causing delayed detection, ineffective response, poor collaboration, inaccurate analysis, and increased risk. Slow internet speeds can delay the receipt and analysis of data, making it difficult for security teams to access the relevant information and take action, leading to a fragmented and inadequate response. All of these factors can increase the risk of data breaches and other security incidents and their impact on IoT-enabled communication. This study combines virtual network function (VNF) technology with software -defined networking (SDN) called virtual network function software-defined networking (VNFSDN). The adoption of the VNFSDN approach has the potential to enhance network security and efficiency while reducing the risk of cyberattacks. This approach supports IoT devices that can analyze large volumes of data in real time. The proposed VNFSDN can dynamically adapt to changing security requirements and network conditions for IoT devices. VNFSDN uses threat filtration and threat-capturing and decision-driven algorithms to minimize cyber risks for IoT devices and enhance network performance. Additionally, the integrity of IoT devices is safeguarded by addressing the three risk categories of data manipulation, insertion, and deletion. Furthermore, the prioritized delegated proof of stake (PDPoS) consensus variant is integrated with VNFSDN to combat attacks. This variant addresses the scalability issue of blockchain technology by providing a safe and adaptable environment for IoT devices that can quickly be scaled up and down to pull together the changing demands of the organization, allowing IoT devices to efficiently utilize resources. The PDPoS variant provides flexibility to IoT devices to proactively respond to potential security threats, preventing or mitigating the impact of cyberattacks. The proposed VNFSDN dynamically adapts to the changing security requirements and network conditions, improving network resiliency and enabling proactive threat detection. Finally, we compare the proposed VNFSDN to existing state-of-the-art approaches. According to the results, the proposed VNFSDN has a 0.08 ms minimum response time, a 2% packet loss rate, 99.5% network availability, a 99.36% threat detection rate, and a 99.77% detection accuracy with 1% malicious nodes.

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Section: Related Workmentioning

confidence: 99%