Enhancing the DSRC reliability to allow the coexistence of VANET's applications

K. A. Hafeez, A. Anpalagan, Lian Zhao
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引用次数: 1

Abstract

The Dedicated Short Range Communication (DSRC) technology has been adopted by the IEEE community to enable safety and non-safety application for Vehicular Ad hoc Networks (VANETs). To better serve these two classes of applications, the DSRC standard divides the bandwidth into seven channels. One channel, called control channel (CCH) to serve safety applications and the other six channels, called service channels (SCHs) to serve non-safety applications. The DSRC standard specifies a channel switching scheme to allow vehicles to alternate between these two classes of application. The standard also recommends that vehicles should visit the CCH every 100ms, called Synchronization Interval (SI), to send and receive their status messages. It is highly desirable that these status messages be delivered to the neighbouring vehicles reliably and within an acceptable delay bound. It is obvious that increasing the time share of the CCH from the SI will increase the reliability of safety applications. In this paper, we will optimize the control channel access such that safety applications have a high successful transmission rate within their share of the SI interval. Moreover, a new algorithm, called Optimal Channel Access (OCA), will be introduced to enhance the performance of the DSRC while keeping the CCH I as small as possible. Hence non-safety applications will have a fair share of the DSRC bandwidth.
增强DSRC的可靠性,使VANET的应用能够共存
专用短距离通信(DSRC)技术已被IEEE社区采用,以实现车辆自组织网络(VANETs)的安全和非安全应用。为了更好地服务于这两类应用,DSRC标准将带宽分为7个通道。一个通道称为控制通道(CCH),服务于安全应用;另外六个通道称为服务通道(SCHs),服务于非安全应用。DSRC标准规定了一种通道切换方案,允许车辆在这两类应用程序之间交替进行。该标准还建议车辆应每100毫秒访问一次CCH,称为同步间隔(SI),以发送和接收状态信息。非常希望这些状态信息能够在可接受的延迟范围内可靠地传递给相邻车辆。显然,从SI中增加CCH的时间份额将提高安全应用的可靠性。在本文中,我们将优化控制通道访问,使安全应用在其SI区间内具有高的成功传输速率。此外,一种称为最优信道接入(OCA)的新算法将被引入,以提高DSRC的性能,同时保持CCH I尽可能小。因此,非安全应用程序将拥有DSRC带宽的公平份额。
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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