扩散分子通信系统中基于信道脉冲响应的物理层认证

Sidra Zafar, Waqas Aman, Muhammad Mahboob Ur Rahman, A. Alomainy, Q. Abbasi
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引用次数: 11

摘要

考虑一个活跃的恶意纳米节点(Eve)在基于扩散的分子通信(DbMC)系统上进行的模拟攻击——Eve在空闲时段发送信息,欺骗纳米接收器(Bob),使其认为她确实是合法的纳米发射器(Alice)。为此,本研究利用三维(3D)通道脉冲响应(CIR),以$L$按键作为设备指纹,用于在每个插槽中对纳米发射器进行认证。具体来说,Bob利用Alice的CIR作为基础真值来构建一个二元假设检验,以系统地接受/拒绝每个槽中接收到的数据。仿真结果突出了模拟攻击带来的巨大挑战。时,不可能同时使两个误差概率最小化。换句话说,人们需要容忍一种错误类型,以最小化另一种错误类型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Channel Impulse Response-based Physical Layer Authentication in a Diffusion-based Molecular Communication System
Consider impersonation attack by an active malicious nano node (Eve) on a diffusion based molecular communication (DbMC) system-Eve transmits during the idle slots to deceive the nano receiver (Bob) that she is indeed the legitimate nano transmitter (Alice). To this end, this work exploits the 3-dimensional (3D) channel impulse response (CIR) with $L$ taps as device fingerprint for authentication of the nano transmitter during each slot. Specifically, Bob utilizes the Alice's CIR as ground truth to construct a binary hypothesis test to systematically accept/reject the data received in each slot. Simulation results highlight the great challenge posed by impersonation attack-i.e., it is not possible to simultaneously minimize the two error probabilities. In other words, one needs to tolerate on one error type in order to minimize the other error type.
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