Methods to use 6LoWPAN in IPv4 network

Yum, Chang-Yeol; Beun, Yong Sung; Kang, Sae-Kyoung; Lee, Young Ro; Song, Joo Seok

doi:10.1109/icact.2007.358520

Cited by 9 publications

(3 citation statements)

References 4 publications

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“…Next in Fog, decryption technique the intermediate cipher is computed by using client key. Finally, the client decryption [32][33][34][35][36][37][38][39][40][41][42] technique gets the intermediate cipher from the private key and original message is obtained. They compared their technique with RSA technique.…”

Section: Data and Cryptographic Based Security Techniquementioning

confidence: 99%

Augmentation and Orchestration of Security Techniques in Fog Computing

2019

ijrte

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The inventions in the field of Cloud computing with mobile devices, cloudlets, Edge computing are sizzling growth of IoT(Internet of Things) devices. The cloud computing technology has its limitation in various attributes such as bandwidth, latency, location awareness, resource constraints etc. In order to overcome these issues, the edge computing, which is known as manipulating the data at the edge of the network. In order to support various integrated features with IoT such as storage, networking, home energy management, augment reality fog computing provides resource access to the network edge of the user. In the user side it is confronted with serious security issues for data security. This article provides the augmentation and orchestration of security issues in fog computing. In this paper, first we check the architecture of fog computing. Then we suggest broad taxonomy of fog architecture with various architectures. Finally, this paper is concluded with scope and future research in fog computing

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Section: Data and Cryptographic Based Security Techniquementioning

confidence: 99%

Augmentation and Orchestration of Security Techniques in Fog Computing

2019

ijrte

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“…In [7] the authors emphasized that their scope is to define guidelines for IPv4 over sensor networks according to an open standard manner, in contradiction with the proprietary solution of ZigBee. A solution to enable IPv4 nodes to have access to a 6LoWPAN data sensor network has been proposed in [8], based on the use of an additional IPv4 address for the sensor node and a modified 6LoWPAN adaptation layer. A further performance analysis of IPv4 and IPv6 over WSNs for data traffic has been proposed in [9].…”

Section: Introductionmentioning

confidence: 99%

IPv4Wireless multimedia sensor networks

Persia

Cassioli

2012

2012 Third International Workshop on Software Engineering for Sensor Network Applications (SESENA)

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The acquisition and distribution of multimedia content, such as still images, audio and video streams, are the new frontier of wireless sensor networks (WSNs). Scalar data WSNs commonly rely on the IEEE 802.15.4 standard that defines suitable physical and medium access control layers, whereas wireless multimedia sensor networks (WMSNs) need advanced architectures able to maintain a predetermined level of quality of service (QoS). In this paper, we analyze the potential of the combination of IPv4 and the IEEE 802.15.4 standard, if employed in the innovative VISION's architecture for WMSNs, designed to support real-time video streaming. We implement IPv4 at the network (NWK) layer, because it is the most suitable protocol to guarantee the interoperability among heterogeneous networks, hence it easily allows the remote access to the WMSN's content. Suitable protocols for network management will provide the relevant performance parameters to the QoS engine of the VISION's architecture that will enable the full adaptability of nodes to the context. Since the main QoS requirements for real time video streaming are the maximum tolerable end-to-end delay and packet loss, our performance evaluation focuses on the analysis of latency and transmitted frames, in the presence of different traffic sources. We also measure the power consumption of WMSN's nodes for the video streaming service.

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“…There are several previous research about tunneling on 6LoWPAN that had been done before, such as using tunnel mechanisms like ISATAP, Teredo, and 6to4, as a method to use 6LoWPAN in IPv4 network [3], tunneling to transmit 6LoWPAN IPv6 packages over IPv4 through a 6to4 tunnel implementation [4], transform the 6LoWPAN packets into IPv6 packets then into IPv4 packets to connect 6LoWPAN network with the Internet [5], an IPv6/IPv4 tunneling application to ensure the tunneling between the nodes, the border routers and the central server [6], using 6to4 tunneling technique to develop Ship Area Sensor Networks (SASN) model which is integration of wired network and 6LoWPAN [7], and automatic tunneling mechanism based on AYIYA by using a public tunnel broker service to connect Android IPv6 smartphone with 6LoWPAN wireless sensors [8].…”

Section: Introductionmentioning

confidence: 99%

Tunneling 6LoWPAN protocol stack in IPv6 network

Prisantama¹,

Widyawan²,

Mustika³

2016

AIP Conference Proceedings

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Validity and reliability of end-user computing satisfaction in Indonesian language to measure digital nursing assessment tool AIP Conference Proceedings 1755, 070001 (2016) 6LoWPAN gives a great opportunity for sensor networks to communicate with the Internet using IP. However, with a few differences between the 6LoWPAN protocol stack and IP protocol stack, it is difficult for 6LoWPAN sensor networks to be operated from the Internet directly. In order to be directly connected to IPv6 networks, tunneling is required. Therefore, tunneling process test on 6LoWPAN network to connect to IPv6 networks needs to be done to show how each 6LoWPAN nodes will be accessible through the edge node and IPv6 network. In this research, we have conducted experiments to design the 6LoWPAN networks and test the tunneling process on 6LoWPAN network to connect with IPv6 networks. We have created a 6LoWPAN network with one edge node and two end nodes. The result shows that each node will be accessible using its IPv6 address through the edge after tunneling process is successfully executed. This research can become an insight for further studies on 6LoWPAN protocol stack as a part of the WSN-based monitoring system in movement.

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Methods to use 6LoWPAN in IPv4 network

Cited by 9 publications

References 4 publications

Augmentation and Orchestration of Security Techniques in Fog Computing

Augmentation and Orchestration of Security Techniques in Fog Computing

IPv4Wireless multimedia sensor networks

Tunneling 6LoWPAN protocol stack in IPv6 network

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