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Target Recognition and 3D Pose Estimation Based on Prior Knowledge and Convolutional Neural Network for Robots

机译:基于先验知识和卷积神经网络的机器人目标识别与3D姿势估计

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In the competition of RoboMaster, the robot needs to trigger the target, the “Energy Mechanism” which consists of nine different dynamic flame numbers, in a nine square area by shooting projectiles. Therefore, 3D target detection should be implemented including target recognition and 3D pose estimation in real-time. As the targets are dynamic flame numbers and quite small in the whole image, it increases the difficulty to detect. The robot should achieve to shoot the target in multi-angle and multi-scale to adjust the competition. To address these issues, we propose a fast and accurate method to detect all nine numbers and estimate each 3D pose based on prior knowledge and convolutional neural network only by a monocular camera. The geometric constraints around the target are employed as prior knowledge when estimating the target pose. Then, we utilize the relative position information to detect the region of each dynamic number in the image, which is recognized by a convolutional neural network trained by flame numbers. Experiments in the actual environment show that our method can achieve the detection of each dynamic number in real-time and high accuracy. The runtime is 29ms on average (about 11ms in detection and 18ms in recognition) and the recognition accuracy is about 94.69%. And our method wins the first place in the technical challenge of 2018 RoboMaster competition.
机译:在RoboMaster的竞争中,机器人需要触发目标,即“能量机制”,该机制由9个不同的动态火焰数组成,并在9平方英寸的区域内发射弹丸。因此,应实现包括目标识别和3D姿态实时估计在内的3D目标检测。由于目标是动态火焰数,并且在整个图像中非常小,因此增加了检测的难度。机器人应实现以多角度和多角度射击目标以调整比赛。为了解决这些问题,我们提出了一种快速,准确的方法来检测所有九个数字,并仅通过单眼相机基于先验知识和卷积神经网络来估计每个3D姿态。在估计目标姿态时,将目标周围的几何约束用作先验知识。然后,我们利用相对位置信息来检测图像中每个动态数的区域,该区域由火焰数训练的卷积神经网络识别。实际环境中的实验表明,我们的方法可以实时,高精度地检测每个动态数字。运行时间平均为29毫秒(检测时约为11毫秒,识别时约为18毫秒),识别精度约为94.69%。我们的方法在2018年RoboMaster竞赛的技术挑战赛中获得第一名。

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