Selective Authentication Based Geographic Opportunistic Routing in Wireless Sensor Networks for Internet of Things Against DoS Attacks

Lyu, Chen; Zhang, Xiaomei; Liu, Zhiqiang; Chi, Chi‐Hung

doi:10.1109/access.2019.2902843

Cited by 57 publications

(27 citation statements)

References 37 publications

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“…• Routing Metric (RM) [80]: In the context of WSNs for IoT, this metric, which apparently does not offer any specific novelty, linearly combines the one-hop geographical progress times the one-hop link trust, and the residual energy of the next-hop node as follows:…”

Section: • Multicast Expected Advancement Rate (Mear) I-mearmentioning

confidence: 99%

Opportunistic routing metrics: A timely one-stop tutorial survey

Abdollahi

Eshghi

Kelarestaghi

et al. 2020

Journal of Network and Computer Applications

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High-speed, low latency, and heterogeneity features of 5G, as the common denominator of many emerging and classic wireless applications, have put wireless technology back in the spotlight. Continuous connectivity requirement in low-power and wide-reach networks underlines the need for more efficient routing over scarce wireless resources, in multi-hp scenarios. In this regard, Opportunistic Routing (OR), which utilizes the broadcast nature of wireless media to provide transmission cooperation amongst a selected number of overhearing nodes, has become more promising than ever. Crucial to the overall network performance, which nodes to participate and where they stand on the transmission-priority hierarchy, are decided by userdefined OR metrics embedded in OR protocols. Therefore, the task of choosing or designing an appropriate OR metric is a critical one. The numerousness, proprietary notations, and the objective variousness of OR metrics can cause the interested researcher to lose insight and become overwhelmed, making the metric selection or design effort-intensive. While there are not any comprehensive OR metrics surveys in the literature, those who partially address the subject are non-exhaustive and lacking in detail. Furthermore, they offer limited insight regarding related taxonomy and future research recommendations. In this paper, starting with a custom tutorial with a new look to OR and OR metrics, we devise a new framework for OR metric design. Introducing a new taxonomy enables us to take a structured, investigative, and comparative approach to OR metrics, supported by extensive simulations. Exhaustive coverage of OR metrics, formulated in a unified notation, is presented with sufficient details. Self-explanatory, easy-to-grasp, and visual-friendly quick references are provided, which can be used independently from the rest of the paper. Finally, a new insightful framework for future research directions is developed. This tutorial-survey has been organized to benefit both generalists and OR specialists equally, and to be used not only in its entirety but selectively as well.

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Section: • Multicast Expected Advancement Rate (Mear) I-mearmentioning

confidence: 99%

Opportunistic routing metrics: A timely one-stop tutorial survey

Abdollahi

Eshghi

Kelarestaghi

et al. 2020

Journal of Network and Computer Applications

View full text Add to dashboard Cite

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“…Because of the popularity of WSN, it is also researched in terms of networking method [23], network coverage [24], information security [25], [26], privacy protection [27], source localization [28] and fog computing [29].…”

Section: Related Workmentioning

confidence: 99%

Stochastic Optimization of Data Access and Hybrid Transmission in Wireless Sensor Network

et al. 2020

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In recent years, the rapid advancements in Internet of Things boost the utilization of Wireless Sensor Network (WSN). Through WSN, a huge amount of various kinds of data can be acquired from different environments, which further facilitate us to harness the world we live. However, the error-prone and unpredictable natures of wireless links significantly impair the quality of data transmission and the utility of acquired data in WSN. Therefore, to solve this crucial problem, this paper focuses on data access control and hybrid transmission control of WSN. Based on the mathematical models of the two control operations, an intractable optimization problem is first formulated with numerous considerations, including data utility, energy consumption, network stability and data loss rate. Because of the complexity and intractability of the originally formulated problem, a Lyapunov function-based network optimization theory is utilized to transform and decompose it into three relatively simple subproblems. Stochastic Data Scheduling Mechanism (SDSM) is designed based on the solutions to the three subproblmes. The optimality and implementation of SDSM are also analyzed. Finally, the performance of SDSM is demonstrated through extensive evaluations. INDEX TERMS Wireless sensor network, data access, hybrid transmission, stochastic scheduling.

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“…Selective authentication based geographic opportunistic routing is proposed by Lyu et al 12 for preventing denial of service attacks in WSN routing for IoT. This routing is based on the trust constructed using statistic state information of the communicating links.…”

Section: Related Workmentioning

confidence: 99%

A decentralized scalable security framework for end‐to‐end authentication of future IoT communication

Sheron

Sridhar

Baskar

et al. 2019

Trans Emerging Tel Tech

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The development of Internet of Things (IoT) has granted multiple interoperable features for user to digital things communication. The future communication technology and service provisioning in IoT is large scaling an open environment. The large scale IoT environment is supported by sensor network and independent nodes. The intelligent computing, storage, and computation features of the nodes are inherited by the IoT paradigm for its application and service support. In such an open environment, security is a prominent issue that must be administered in a decentralized manner. In this manuscript, a decentralized and scalable security framework for future IoT is designed. This framework exploits the advantages of intelligent computing and tree-based hash for device and request authentication to provide device-to-device security. The tree-based hash is used for authenticating requests and the central authority-based security feature of the framework provides device level security, ensuring better privacy and integrity in communications. The experimental analysis of the proposed security framework is analyzed in terms of detection rate, communication loss, disconnection ratio, and delay. 1 INTRODUCTION Internet of Things (IoT) has emerged as an advanced technology in the recent years of communication field incorporating diverse networks, applications, and services. The concept of IoT is to integrate communicating "things" and human users as a single entity through digital medium. It is capable of visualizing real-time components, data, and information as a digital perspective for distributed access, communication, and sharing. 1 Heterogeneous networks, long-and short-range communication infrastructures, multilevel protocols, applications, and services are present in IoT for pervasive access. This eases interaction between devices, data sharing, uninterrupted communication, resource management, storage, and access for end-users demanding reliable service quality. 2 End-users initiate queries through requests that are processed at different IoT platforms including cloud and gateways. Distributed resources are migrated toward end-user devices through applications boasted for services. Extended network functions such as complex computations, system analysis, storage, and retrieval are performed with the support of heterogeneous service providers. A notable heterogeneous service provider is cloud platform that is capable of strengthening the ubiquitous access and multilevel device interaction of the end-users. 3 The "things" connected in an IoT environment includes short range static devices such as RFIDs to mobile smart devices such as IoT vehicles. The smart nature of the devices is exploited by augmenting sensor-based battery powered circuits that serves the communication purpose. With the equipped electronic circuits, the device is capable of participating in external communication and joining heterogeneous network. Wireless sensor network (WSN) is a renowned technology

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Selective Authentication Based Geographic Opportunistic Routing in Wireless Sensor Networks for Internet of Things Against DoS Attacks

Cited by 57 publications

References 37 publications

Opportunistic routing metrics: A timely one-stop tutorial survey

Opportunistic routing metrics: A timely one-stop tutorial survey

Stochastic Optimization of Data Access and Hybrid Transmission in Wireless Sensor Network

A decentralized scalable security framework for end‐to‐end authentication of future IoT communication

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