Extension of MIH for FPMIPv6 (EMIH-FPMIPv6) to support optimized heterogeneous handover

Guan, Jianfeng; Sharma, Vishal; You, Ilsun; Atiquzzaman, Mohammed; Imran, Muhammad

doi:10.1016/j.future.2019.03.031

Cited by 13 publications

(15 citation statements)

References 41 publications

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“…Content may change prior to final publication. Trust-based relaying [147] Cluster-based relaying [148] Secure MACbased relaying [149], [150] Cross-layerbased relaying [151]- [153] Topologybased relaying [154] IP-based relaying [155]- [157] Mobility-based relaying [146], [158], [159] Proactive [157], [158], [160] Reactive [161] One-way [162] Two-way [163], [164] Freshness-based [146], [156], [164]- [170] Encryption-based [146], [154], [156], [163], [164], [166]- [174] Access-based [146], [163], [164], [166]- [174] System Integrity-based [132], [156], [163], [164], [166], [169], [173], [174] This article has been accepted for publication in a future issue of this journal, but has not been fully edited. Content may change prior to final publication.…”

Section: Security-aware Protocols For Smart M-iotmentioning

confidence: 99%

“…Such schemes are responsible for securing the path of the nodes when they are moving in an intraor inter-mode of a given authentication server. Mobility management schemes can be studied as distributed, centralized, semi-distributed or even hierarchical [146], [158], [159].…”

Section: A Secure Routing-basedmentioning

confidence: 99%

“…Most of the approaches are selected on the basis of handoff latency, and time consumed in laying off their services onto the next terminals along with their cost of operations [312]. SDNs, media-independent technologies, network slicing and the inclusion of PMIPv6-based solutions can enhance the performance of security solutions that aim at securing the handovers in M-IoT [146], [159], [313]- [316]. The proactive Handovers are operated through a governing entity which initiates the procedures of attachment and detachment of a node in the network.…”

Section: Handover Security For Smart M-iotmentioning

confidence: 99%

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Security, Privacy and Trust for Smart Mobile- Internet of Things (M-IoT): A Survey

et al. 2020

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With an enormous range of applications, the Internet of Things (IoT) has magnetized industries and academicians from everywhere. IoT facilitates operations through ubiquitous connectivity by providing Internet access to all the devices with computing capabilities. With the evolution of wireless infrastructure, the focus from simple IoT has been shifted to smart, connected and mobile IoT (M-IoT) devices and platforms, which can enable low-complexity, low-cost and efficient computing through sensors, machines, and even crowdsourcing. All these devices can be grouped under a common term of M-IoT. Even though the positive impact on applications has been tremendous, security, privacy and trust are still the major concerns for such networks and insufficient enforcement of these requirements introduces non-negligible threats to M-IoT devices and platforms. Thus, it is important to understand the range of solutions which are available for providing a secure, privacy-compliant, and trustworthy mechanism for M-IoT. There is no direct survey available, which focuses on security, privacy, trust, secure protocols, physical layer security and handover protections in M-IoT. This paper covers such requisites and presents comparisons of statethe-art solutions for IoT which are applicable to security, privacy, and trust in smart and connected M-IoT networks. Apart from these, various challenges, applications, advantages, technologies, standards, open issues, and roadmap for security, privacy and trust are also discussed in this paper.

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Section: Security-aware Protocols For Smart M-iotmentioning

confidence: 99%

Section: A Secure Routing-basedmentioning

confidence: 99%

Section: Handover Security For Smart M-iotmentioning

confidence: 99%

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Security, Privacy and Trust for Smart Mobile- Internet of Things (M-IoT): A Survey

et al. 2020

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“…Since the traffic remains the same, a similar message size, as computed previously, is used for evaluating the overall latency of the network. Thus, in this scenario, the network latency is calculated as [ 64 ]:

where

is the one-frame transport delay,

is the message size,

is the frame size,

is the inter-frame time,

is the link layer delay,

is the number of intermediate hops,

is the network bandwidth and

is the wired delay.…”

Section: Performance Evaluationmentioning

confidence: 99%

An Enhanced LoRaWAN Security Protocol for Privacy Preservation in IoT with a Case Study on a Smart Factory-Enabled Parking System

You

Kwon

Choudhary

et al. 2018

Sensors

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The Internet of Things (IoT) utilizes algorithms to facilitate intelligent applications across cities in the form of smart-urban projects. As the majority of devices in IoT are battery operated, their applications should be facilitated with a low-power communication setup. Such facility is possible through the Low-Power Wide-Area Network (LPWAN), but at a constrained bit rate. For long-range communication over LPWAN, several approaches and protocols are adopted. One such protocol is the Long-Range Wide Area Network (LoRaWAN), which is a media access layer protocol for long-range communication between the devices and the application servers via LPWAN gateways. However, LoRaWAN comes with fewer security features as a much-secured protocol consumes more battery because of the exorbitant computational overheads. The standard protocol fails to support end-to-end security and perfect forward secrecy while being vulnerable to the replay attack that makes LoRaWAN limited in supporting applications where security (especially end-to-end security) is important. Motivated by this, an enhanced LoRaWAN security protocol is proposed, which not only provides the basic functions of connectivity between the application server and the end device, but additionally averts these listed security issues. The proposed protocol is developed with two options, the Default Option (DO) and the Security-Enhanced Option (SEO). The protocol is validated through Burrows–Abadi–Needham (BAN) logic and the Automated Validation of Internet Security Protocols and Applications (AVISPA) tool. The proposed protocol is also analyzed for overheads through system-based and low-power device-based evaluations. Further, a case study on a smart factory-enabled parking system is considered for its practical application. The results, in terms of network latency with reliability fitting and signaling overheads, show paramount improvements and better performance for the proposed protocol compared with the two handshake options, Pre-Shared Key (PSK) and Elliptic Curve Cryptography (ECC), of Datagram Transport Layer Security (DTLS).

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“…Although 5G networks aim at increasing the speed as well as the quality of the transmissions, this reduces the time window for applying security mechanisms to prevent any active attacks on the networks. Thus, new mechanisms are needed for securing these fast communications or applicability approach of existing solutions needs to be changed to cope with the low-latency requirements of these networks [28]- [30]. Along with these attacks, it is desired the network should be free from insider threats as these may expose the internal functionalities which may lead to different types of attacks that are next to impossible to detect at the real time.…”

Section: Introductionmentioning

confidence: 99%

A Survey on the Security and the Evolution of Osmotic and Catalytic Computing for 5G Networks

Choudhary

Sharma

2019

5G Enabled Secure Wireless Networks

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The 5G networks have the capability to provide high compatibility for the new applications, industries, and business models. These networks can tremendously improve the quality of life by enabling various use cases that require high data-rate, low latency, and continuous connectivity for applications pertaining to eHealth, automatic vehicles, smart cities, smart grid, and the Internet of Things (IoT). However, these applications need secure servicing as well as resource policing for effective network formations. There have been a lot of studies, which emphasized the security aspects of 5G networks while focusing only on the adaptability features of these networks. However, there is a gap in the literature which particularly needs to follow recent computing paradigms as alternative mechanisms for the enhancement of security. To cover this, a detailed description of the security for the 5G networks is presented in this article along with the discussions on the evolution of osmotic and catalytic computing based security modules. The taxonomy on the basis of security requirements is presented, which also includes the comparison of the existing state-of-the-art solutions. This article also provides a security model, "CATMOSIS", which idealizes the incorporation of security features on the basis of catalytic and osmotic computing in the 5G networks. Finally, various security challenges and open issues are discussed to emphasize the works to follow in this direction of research. and vulnerabilities have been evolving continuously with the networks because of an increase in the number of users where attackers try to exploit the potential weaknesses. To easily follow these issues and aspects, an overview of 5G applications, technologies, features and performance challenges and standardization are presented in Fig.1 and Fig.2. Current 5G networks are supported by different technology enablers, which include Fig 2. An illustration of 5G evolution, standardization and known security attacks. Applications of 5G networks:The major applications of the 5G networks are provided below:1. Autonomous Vehicle: The automatic controlled driving car and vehicles are key enablers of Vehicle-to-Vehicle (V2V), Vehicle-to-Infrastructure (V2I) and other Intelligent Transport Systems (ITS). The 5G network supports large bandwidth and low latency for these applications with high connection reliability. This network supports collision avoidance and intelligent navigation for the reliable transportation systems [6] [7]. Public Safety Communications (PSCs):The PSCs facilitated various communication services in case of emergencies when the primary communication infrastructure is not available. The PSCs incorporated rapid deployment and accessibility of communication set-up. Therefore, 5G enabled communications supports a wide range of applications and long-term connectivity for the services in case of emergencies [12]. 3. Military Applications: The Military involved mission-critical control application which requires high data rate and long-term c...

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Extension of MIH for FPMIPv6 (EMIH-FPMIPv6) to support optimized heterogeneous handover

Cited by 13 publications

References 41 publications

Security, Privacy and Trust for Smart Mobile- Internet of Things (M-IoT): A Survey

Security, Privacy and Trust for Smart Mobile- Internet of Things (M-IoT): A Survey

An Enhanced LoRaWAN Security Protocol for Privacy Preservation in IoT with a Case Study on a Smart Factory-Enabled Parking System

A Survey on the Security and the Evolution of Osmotic and Catalytic Computing for 5G Networks

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