The recent advancement in computational and communication systems has led to the introduction of high-performing neural networks and high-speed wireless vehicular communication networks. As a result, new technologies such as cooperative perception and cognition have emerged, addressing the inherent limitations of sensory devices by providing solutions for the detection of partially occluded targets and expanding the sensing range. However, designing a reliable cooperative cognition or perception system requires addressing the challenges caused by limited network resources and discrepancies between the data shared by different sources. In this paper, we examine the requirements, limitations, and performance of different cooperative perception techniques, and present an in-depth analysis of the notion of Deep Feature Sharing (DFS). We explore different cooperative object detection designs and evaluate their performance in terms of average precision. We use the Volony dataset for our experimental study. The results confirm that the DFS methods are significantly less sensitive to the localization error caused by GPS noise. Furthermore, the results attest that detection gain of DFS methods caused by adding more cooperative participants in the scenes is comparable to raw information sharing technique while DFS enables flexibility in design toward satisfying communication requirements.
翻译:最近,计算和通信系统的进展导致引入了高性能神经网络和高速无线通信网络,结果出现了合作感知和认知等新技术,通过提供探测部分隐蔽目标和扩大感测范围的解决方案,解决了感官装置的内在局限性,然而,设计可靠的合作认知或感知系统,需要应对网络资源有限和不同来源共享的数据差异带来的挑战。在本文件中,我们审查了不同合作感知技术的要求、局限性和性能,对深地特征共享概念进行了深入分析。我们探索了不同的合作对象探测设计,并按平均精确度评价了这些设计的业绩。我们利用Volony数据集进行实验研究。结果证实,外勤部的方法对全球定位系统噪音造成的本地化错误的敏感度要低得多。此外,结果证明,在现场增加更多合作参与者导致的外勤部方法的探测收益可与原始信息共享技术相比,而外勤部在设计上能够灵活地满足通信要求。