基于音频信号的车辆力学状态判定与道路交通密度估计

Minal Bhandarkar, Tejashri Waykole
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引用次数: 5

摘要

在本文中,我们将使用声或声信号来估计车辆交通密度。在这里,我们将估计三种可能的交通状况,即大流量交通(0-10km/h),中等流量(20-40km/h)和自由流量(超过40km/h)交通。累积的声音信号包括来自车辆各部分的各种噪音,包括转动部件、发动机的振动、轮胎与路面的摩擦、车辆的排气部件、齿轮等。噪声信号是轮胎噪声、发动机噪声、发动机空转噪声、偶尔的喇叭声和多辆车的空气湍流噪声。这些噪声信号所包含的频谱内容各不相同,因此可以判断不同的交通密度状态和车辆的力学状况。例如,在自由流动的交通条件下,车辆通常以中高速行驶,因此主要产生轮胎噪声和空气湍流噪声。这里我们将使用支持向量机和人工神经网络分类器。在人工神经网络中,我们将使用前馈网络。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vehicular Mechanical Condition Determination and On Road Traffic Density Estimation Using Audio Signals
In this paper we are going to estimate the vehicular traffic density by using acoustic or sound signals. Here we will estimate three probable conditions of traffic that is heavy flow traffic (0-10km/h), medium flow (20-40km/h), and free flow (above 40km/h) traffic. Cumulative sound signals consist of various noises coming from various part of vehicles which includes rotational parts, vibrations in the engine, friction between the tires and the road, exhausted parts of vehicles, gears, etc. Noise signals are tire noise, engine noise, engine-idling noise, occasional honks, and air turbulence noise of multiple vehicles. These noise signals contains spectral content which are different from each other, therefore we can determine the different traffic density states and mechanical condition of vehicle. For example, under a free-flowing traffic condition, the vehicles typically move with medium to high speeds and thereby produces mainly tire noise and air turbulence noise. Here we will use SVM and ANN classifiers. In ANN, we are going to use Feed Forword Network.
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