A Stateless Spatial IPv6 Address Configuration Scheme for Internet of Things

Kumar, Gyanendra; Tomar, Parul

doi:10.1080/03772063.2021.1994037

Cited by 7 publications

(4 citation statements)

References 39 publications

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“…The NDP utilizes its DAD service to ensure that each IPv6 address in the IoD network is unique. In the standard IETF 21 and others 23,[27][28][29][30][31] DAD solutions, a new drone multicast its complete IID using the NS message to detect any other node claiming the IID. However, this method exposes the complete IID to all existing drones in the network and may lead to different types of attacks.…”

Section: Motivationmentioning

confidence: 99%

IPv6 addressing with hidden duplicate address detection to mitigate denial of service attacks in the internet of drone

Kumar,

Pragya

2024

Concurrency and Computation

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SummaryThe fusion of drones with the Internet, termed the Internet of Drones (IoD), resembles the Internet of Things (IoT) paradigm. In IoD, drones necessitate unique identifiers similar to IPv6 addresses. This paper presents a novel approach for securing the duplicate address detection (DAD) process in the IoD environment. This paper focuses on addressing the security challenges posed by malicious drones in the DAD process. The proposed solution introduces a hidden DAD (H‐DAD) process, to mitigate attacks on the DAD process. In this scheme, drones transmit a transformed portion of their interface identifier (IID) while concealing the full IID, thus thwarting potential disruptions by malicious entities. We evaluated the effectiveness of the H‐DAD scheme through experimental analysis using Python with SimPy, comparing it with the Improved DAD, Secure DAD, and Standard DAD schemes. Our results demonstrate a notable improvement, with the Hidden DAD scheme achieving a 100% address success rate under attack. Moreover, it exhibits approximately 5% and 12% lower overhead and energy consumption, respectively, compared to the other schemes.

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Section: Motivationmentioning

confidence: 99%

IPv6 addressing with hidden duplicate address detection to mitigate denial of service attacks in the internet of drone

Kumar,

Pragya

2024

Concurrency and Computation

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“…IPv6 doesn't suit itself well as a default to IoT networks. A lot of work has to be done to adapt IPv6 and especially the IPv6 headers to be better suited to IoT networks [18].…”

Section: Challenges With Running Ipv6 In Iot Networkmentioning

confidence: 99%

Implementation and Evaluation of IPv6 with Compression and Fragmentation for Throughput Improvement of Internet of Things Networks over IEEE 802.15.4

Haggag

2023

Wireless Pers Commun

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There is a large number of connected devices in the Internet of Things (IoT) networks that are typically several orders of magnitude bigger than enterprise networks and campus networks. The exponential increase in the number of interconnected smart devices is expected to exceed 60 billion smart objects shortly. The requirements needed for IoT networks are scalability, low power consumption, and simplified routing and security protocols. IoT networks are also heterogeneous, composing different types of networks together. Legacy network protocols like IPv4 has deemed to be inefficient for IoT networks. As the number of IPv4 addresses is almost consumed with regular network devices, we propose the use of IPv6 addressing for IoT-connected devices as IPv4 cannot accommodate the scalability requirement of IoT. IPv6 provides extended address space and enhanced mobility which are very essential for IoT networks. In this research, we apply IPv6 to IoT networks to avoid the scalability bottleneck of the IPv4 subnet. IPv6 accommodates a large number of connected devices and solves issues resulting from the heterogeneous nature and access methods of IoT devices. However, IPv6 is a large protocol that does not suit itself well in the IoT world. The Maximum Transmission Unit (MTU) permitted for IEEE 802.15.4 MAC data frames with their encapsulated IPv6 packet is limited to 127 bytes. We need 40 bytes for the uncompressed IPv6 header and 8 bytes are needed for the uncompressed UDP header. As a result, there are either 54 bytes left for the payload when security is not considered or 33 bytes when security is considered. We investigate throughput improvement for IoT networks by applying adaptation to IPv6 through header compression with UDP header compression. We also apply fragmentation for MAC frames that exceed the 127 bytes MTU limit. Simulation results showed that IPv6 compression with or without fragmentation serves toward adapting IPv6 packets to IoT networks. In the case of applying fragmentation, the technique of fragment forwarding greatly enhances the performance. Network traffic within the same network can be compressed to 2 bytes. On leaving the 802.15.4 network, the header increases to 12 bytes if the network prefix is known or to 20 bytes if the network prefix is unknown. Two evaluation metrics, namely, Compression Gain and Packet Delivery Ratio were applied to our proposed implementation method to prove the validity and the efficiency of our proposal.

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“…Cloud computing can be used for the secure transmission of cryptography, as cited by Chachapara K. et al [33][34][35] and illustrated the frameworks such as AES and RSA. AES is, to date, one of the most robust cryptographic algorithms.…”

Section: Literature Reviewmentioning

confidence: 99%

Intelligent Adaptive Optimisation Method for Enhancement of Information Security in IoT-Enabled Environments

et al. 2022

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The usage of the Internet increased dramatically during the start of the twenty-first century, entangling the system with a variety of services, including social media and e-commerce. These systems begin producing a large volume of data that has to be secured and safeguarded from unauthorised users and devices. In order to safeguard the information of the cyber world, this research suggests an expanded form of differential evolution (DE) employing an intelligent mutation operator with an optimisation-based design. It combines a novel mutation technique with DE to increase the diversity of potential solutions. The new intelligent mutation operator improves the security, privacy, integrity, and authenticity of the information system by identifying harmful requests and responses and helping to defend the system against assault. When implemented on an e-commerce application, the performance of the suggested technique is assessed in terms of confidentiality, integrity, authentication, and availability. The experimental findings show that the suggested strategy outperforms the most recent evolutionary algorithm (EA).

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A Stateless Spatial IPv6 Address Configuration Scheme for Internet of Things

Cited by 7 publications

References 39 publications

IPv6 addressing with hidden duplicate address detection to mitigate denial of service attacks in the internet of drone

IPv6 addressing with hidden duplicate address detection to mitigate denial of service attacks in the internet of drone

Implementation and Evaluation of IPv6 with Compression and Fragmentation for Throughput Improvement of Internet of Things Networks over IEEE 802.15.4

Intelligent Adaptive Optimisation Method for Enhancement of Information Security in IoT-Enabled Environments

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