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DEEP SEMANTIC SEGMENTATION FOR THE OFF-ROAD AUTONOMOUS DRIVING

机译:越野自治驾驶的深度语义分割

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This paper is devoted to the problem of image semantic segmentation for machine vision system of off-road autonomous robotic vehicle. Most modern convolutional neural networks require large computing resources that go beyond the capabilities of many robotic platforms. Therefore, the main drawback of such models is extremely high complexity of the convolutional neural network used, whereas tasks in real applications must be performed on devices with limited resources in real-time. This paper focuses on the practical application of modern lightweight architectures as applied to the task of semantic segmentation on mobile robotic systems. The article discusses backbones based on ResNet18, ResNet34, MobileNetV2, ShuffleNetV2, EfficientNet-B0 and decoders based on U-Net and DeepLabV3 as well as additional components that can increase the accuracy of segmentation and reduce the inference time. In this paper we propose a model using ResNet34 and DeepLabV3 decoding with Squeeze & Excitation blocks that was optimal in terms of inference time and accuracy. We also demonstrate our off-road dataset and simulated dataset for semantic segmentation. Furthermore, we present that using pre-trained weights on simulated dataset achieves to increase 2.7% mIoU on our off-road dataset compared pre-trained weights on the Cityscapes. Moreover, we achieve 75.6% mIoU on the Cityscapes validation set and 85.2% mIoU on our off-road validation set with a speed of 37 FPS for a 1,024×1,024 input on one NVIDIA GeForce RTX 2080 card using NVIDIA TensorRT.
机译:本文致力于越野自治机器人机器视觉系统的图像语义分割问题。大多数现代卷积神经网络需要大量计算资源,超出许多机器人平台的能力。因此,这种模型的主要缺点是所使用的卷积神经网络的极高复杂性,而实际应用中的任务必须在实时具有有限的资源的设备上执行。本文侧重于现代轻质架构的实际应用,它适用于移动机器人系统的语义细分任务。本文讨论基于Reset18,Resnet34,MobileNetv2,Shufflenetv2,ComputiveNet-B0和解码器的备用衬里,基于U-Net和Deeplabv3以及可以提高分割精度并降低推理时间的附加组件。在本文中,我们提出了一种模型,使用Reset34和Deeplabv3解码,挤出和激励块在推理时间和精度方面是最佳的。我们还展示了我们的越野数据集和模拟数据集,用于语义细分。此外,我们展示在越野数据集中使用预先训练的重量,以增加2.7%的Miou在城市景观上进行预先训练的重量。此外,我们在城市景观验证集中达到了75.6%的Miou,我们的越野验证速度为85.2%Miou,速度为1,024×1,024输入的37 FEForce RTX 2080卡,使用NVIDIA Tensorrt。

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