基于r - cnn的新型自适应双模机器人锚定系统快速决策

Shahrooz Shahin, Rasoul Sadeghian, S. Sareh
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引用次数: 3

摘要

本文提出了一种新型的自适应锚定模块,该模块可以集成到机器人中,以提高机器人的移动能力和操作能力。该模块可以根据表面的纹理特性,通过刺或真空吸力,在不同的接触面上部署合适的附着模式。为了确定合适的附着模式,使用WGAN-GP对100张室外和室内表面图像的原始数据集进行增强,以生成额外的200张合成图像。然后使用增强的数据集训练使用Faster RCNN的视觉表面检查模型。合成图像的加入使Faster R-CNN模型的平均精度从81.6%提高到93.9%。我们还进行了一系列负载测试,以表征模块的附件强度。实验结果表明,锚固模块在理想表面分别采用刺和真空吸力附着时,可承受约22N和20N的分离力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Faster R-CNN-based Decision Making in a Novel Adaptive Dual-Mode Robotic Anchoring System
This paper proposes a novel adaptive anchoring module that can be integrated into robots to enhance their mobility and manipulation abilities. The module can deploy a suitable mode of attachment, via spines or vacuum suction, to different contact surfaces in response to the textural properties of the surfaces. In order to make a decision on the suitable mode of attachment, an original dataset of 100 images of outdoor and indoor surfaces was enhanced using a WGAN-GP to generate an additional 200 synthetic images. The enhanced dataset was then used to train a visual surface examination model using Faster RCNN. The addition of synthetic images increased the mean average precision of the Faster R-CNN model from 81.6% to 93.9%. We have also conducted a series of load tests to characterize the module’s strength of attachments. The results of the experiments indicate that the anchoring module can withstand an applied detachment force of around 22N and 20N when attached using spines and vacuum suction on the ideal surfaces, respectively.
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