E2EdgeAI: Energy-Efficient Edge Computing for Deployment of Vision-Based DNNs on Autonomous Tiny Drones

Mozhgan Navardi, E. Humes, T. Mohsenin
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引用次数: 6

Abstract

Artificial Intelligence (AI) and Deep Neural Networks (DNNs) have attracted attention as a solution within autonomous systems fields as they enable applications such as visual perception and navigation. Although cloud-based approaches have already been highly addressed, there is a growing interest in using both AI and DNNs on the edge as this allows for lower latency and avoids the potential security concerns of transmitting data to a remote server. However, deploying DNNs on edge devices is challenging due to the limited computational power available, as well as energy efficiency being of the utmost importance. In this work, we introduce an approach named E2EdgeAI for Energy-Efficient Edge computing that takes advantage of AI for autonomous tiny drones. This approach optimizes the energy efficiency of DNNs by considering the effects of memory access and core utilization on the energy consumption of tiny UAVs. To perform the experiment, we used a tiny drone named Crazyflie with the AI -deck expansion, which includes an octa-core RISC-V processor. The experimental results show the proposed approach reduces the model size by up to 14.4x, improves energy per inference by 78%, and increases energy efficiency by 5.6x. A recorded video for the proposed approach can be found here: Video.
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基于视觉的深度神经网络在自主微型无人机上的高效边缘计算
人工智能(AI)和深度神经网络(dnn)作为自主系统领域的解决方案备受关注,因为它们可以实现视觉感知和导航等应用。尽管基于云的方法已经得到了高度解决,但人们对在边缘使用人工智能和深度神经网络的兴趣越来越大,因为这可以降低延迟,并避免将数据传输到远程服务器的潜在安全问题。然而,由于可用的计算能力有限,以及最重要的能源效率,在边缘设备上部署dnn具有挑战性。在这项工作中,我们介绍了一种名为E2EdgeAI的节能边缘计算方法,该方法利用AI用于自主微型无人机。该方法通过考虑存储访问和核心利用率对微型无人机能量消耗的影响,优化深度神经网络的能量效率。为了进行实验,我们使用了一架名为crazyfly的小型无人机,该无人机带有AI甲板扩展,其中包括一个八核RISC-V处理器。实验结果表明,该方法将模型尺寸减小了14.4倍,每次推理能量提高了78%,能量效率提高了5.6倍。建议的方法的录制视频可以在这里找到:视频。
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