M2M Rendezvous Redundancy for the Internet of Things

Andrew Attwood, O. Abuelma'atti, P. Fergus
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引用次数: 3

Abstract

Machine to Machine communication will play an important role in enabling the Internet of Things. Devices in both home and industrial settings will cooperate to create smart spaces. Devices will communicate with each other autonomously, enabling them to make decisions to reach an optimal environmental goal. The nature of their deployment will involve these devices having to operate under extreme conditions, such as during a fire, flooding or following an explosion. Events such as these would usually cause a reduction in the number of devices that originally constituted the system. Individual device loss might be temporary or permanent. Devices might not be active at the time of failure and may be sleeping due to the low power requirements to extend device longevity. It is important that when devices wake they can obtain the information they require and if a device is destroyed that its last known state is preserved in the system. Preserving the last know state of a device also provides a useful source of information for post failure analysis as well as the continued operation of the system during the event. This paper details our rendezvous state redundancy protocol for the Internet of Things. We then validate the use of position relative topologies when creating distributed hash tables for redundancy in wireless mesh IoT sensor networks. We then provide an evaluation of the keying mechanism used to provide optimal redundancy for given failure patterns.
面向物联网的M2M交会冗余
机器对机器通信将在实现物联网方面发挥重要作用。家庭和工业环境中的设备将协同创造智能空间。设备将自动相互通信,使它们能够做出决定,以达到最佳的环境目标。其部署的性质将涉及这些设备必须在极端条件下运行,例如在火灾,洪水或爆炸之后。诸如此类的事件通常会导致最初构成系统的设备数量减少。单个设备的丢失可能是暂时的,也可能是永久性的。设备在发生故障时可能不处于活动状态,并且由于延长设备寿命的低功耗要求而可能处于睡眠状态。重要的是,当设备唤醒时,它们可以获得所需的信息,如果设备被破坏,它的最后已知状态保留在系统中。保存设备的最后已知状态还为故障后分析以及事件期间系统的继续运行提供了有用的信息来源。本文详细介绍了我们的物联网交会状态冗余协议。然后,我们在无线网状物联网传感器网络中创建冗余分布式哈希表时验证位置相对拓扑的使用。然后,我们提供了用于为给定故障模式提供最佳冗余的键控机制的评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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