基于同信道底层水印认证的物理层防火墙设计

Michael Fletcher, J. Gaeddert, Alan J. Michaels
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引用次数: 1

摘要

在接收端按时间对齐注入基于同信道底层的水印进行身份验证是提高物理层安全性的有效方法。传统上,防火墙被用于管理有线网络中的授权流量,本文为无线网络提供了类似功能的设计和实现。物理层防火墙只允许接收方在传入主信号同时检测到有效水印的情况下访问,并且可以与几乎任何网络波形一起使用。此外,使用非重复任意相位扩频信号消除了许多常见的重放攻击。建立了一个硬件原型,用于接收具有任意相位扩频底层的IEEE 802.11g主信号,显示可靠的认证性能,只有很小的误码率下降,直到调制和编码方案5。建议未来的原型进一步优化性能,用于其他数据波形,并演示更高层的协议。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Physical Layer Firewall Design using Co-Channel Underlay-Based Watermark Authentication
The time-aligned injection of a co-channel underlay-based watermark for authentication at the receiver is an effective method to enhance physical layer security. While firewalls have traditionally been used to manage authorized traffic in wired networks, this paper provides the design and implementation of similar functions for wireless networks. The physical layer firewall only allows receiver access in cases where the valid watermark is detected concurrent to the incoming primary signal, and may be used with virtually any network waveform. Moreover, the use of non-repeating arbitrary-phase spread spectrum signals eliminates many common replay attacks. A hardware prototype is built to receive IEEE 802.11g primary signals with arbitrary-phase spread spectrum underlays, showing reliable authentication performance with only minor bit error rate degradation up to Modulation and Coding Scheme 5. Future prototypes are suggested to further optimize performance, for use with other data waveforms, and to demonstrate higher layer protocols.
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