Autonomous driving has made great progress and been introduced in practical use step by step. On the other hand, the concept of personal mobility is also getting popular, and its autonomous driving specialized for individual drivers is expected for a new step. However, it is difficult to collect a large driving dataset, which is basically required for the learning of autonomous driving, from the individual driver of the personal mobility. In addition, when the driver is not familiar with the operation of the personal mobility, the dataset will contain non-optimal data. This study therefore focuses on an autonomous driving method for the personal mobility with such a small and noisy, so-called personal, dataset. Specifically, we introduce a new loss function based on Tsallis statistics that weights gradients depending on the original loss function and allows us to exclude noisy data in the optimization phase. In addition, we improve the visualization technique to verify whether the driver and the controller have the same region of interest. From the experimental results, we found that the conventional autonomous driving failed to drive properly due to the wrong operations in the personal dataset, and the region of interest was different from that of the driver. In contrast, the proposed method learned robustly against the errors and successfully drove automatically while paying attention to the similar region to the driver. Attached video is also uploaded on youtube: https://youtu.be/KEq8-bOxYQA
翻译:自主驾驶取得了巨大进步,并逐步在实际使用方面逐步引入了自主驾驶。另一方面,个人流动的概念也越来越受欢迎,个人驾驶者专用的自主驾驶为个人驾驶者专用,预计会有一个新的步骤。然而,很难从个人驾驶者个人驾驶者那里收集大型驾驶数据集,这是学习自主驾驶所需的。此外,当驾驶者不熟悉个人调动的操作时,数据集将包含非最佳的数据。因此,本研究侧重于个人流动的自主驾驶方法,其规模如此小且吵闹,所谓的个人数据集。具体地说,我们根据Tsallis统计引入一个新的损失函数,根据原损失函数加权梯度,允许我们在优化阶段排除噪音数据。此外,我们改进视觉化技术,以核实驾驶者和控制者是否拥有同样感兴趣的区域。根据实验结果,我们发现常规自主驾驶未能正确驱动,因为个人数据集操作不当,兴趣区域与驱动者Q不同。相比之下,我们根据Tsalllilis统计的梯度调整了RVeVA,同时将自动学习了RUB/GUA。在A上对驱动器的注意度上方的正确度。我们,对UBUA的注意是自动学习的方法。在RUB/UUA上方的正确学习。