利用深度学习的开箱即用型卡棱检测方法

Oskar Herrmann, Nora Gourmelon, T. Seehaus, A. Maier, J. Fürst, Matthias H. Braun, V. Christlein
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摘要

摘要全球各地的冰川都会对不断变化的气候做出反应。监测冰川的变化对于预测冰川对全球平均海平面上升的影响至关重要。冰川塌陷前沿的划分是卫星监测过程的重要组成部分。这项工作提出了一种基于深度学习框架 nnU-Net(代表无新 U-Net)的冰川塌陷前沿提取方法。该框架可自动训练一种流行的神经网络,称为 U-Net,专为分割任务而设计。我们提出的方法可以在冰川的合成孔径雷达(SAR)图像中标记出冰川融化前沿。这些图像由六种不同的传感器系统拍摄。冰川前沿提取的基准数据集用于训练和评估。数据集包含每幅图像的两个标签。一个标签表示经典的图像分割,分为不同区域(冰川、海洋、岩石和无信息)。另一个标签表示冰川与海洋之间的边缘,即冰川融化前沿。在这项工作中,对 nnU-Net 进行了修改,以便同时预测这两个标签。在机器学习领域,多个标签的预测被称为多任务学习(MTL)。对两个标签的预测结果可从同时优化中获益。为了进一步测试 MTL 的能力,我们对两种不同的网络架构进行了比较,并在训练中增加了一项额外的任务,即冰川轮廓的分割。结果表明,与 MTL 神经网络架构相比,融合冰川断裂前沿标签和区域标签是优化这两项任务的最有效方法,而且准确率没有明显降低。用融合标签训练的 nnU-Net 自动检测结冰前沿的平均距离误差(MDE)从基线的 753±76 米减少到 541±84 米。我们的实验脚本发布在 GitHub 上(https://github.com/ho11laqe/nnUNet_calvingfront_detection,最后访问日期:2023 年 11 月 20 日):2023 年 11 月 20 日)。简易版本发布在 Hugging Face 上 (https://huggingface.co/spaces/ho11laqe/nnUNet_calvingfront_detection, 最后访问日期: 2023 年 11 月 20 日):2023 年 11 月 20 日)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Out-of-the-box calving-front detection method using deep learning
Abstract. Glaciers across the globe react to the changing climate. Monitoring the transformation of glaciers is essential for projecting their contribution to global mean sea level rise. The delineation of glacier-calving fronts is an important part of the satellite-based monitoring process. This work presents a calving-front extraction method based on the deep learning framework nnU-Net, which stands for no new U-Net. The framework automates the training of a popular neural network, called U-Net, designed for segmentation tasks. Our presented method marks the calving front in synthetic aperture radar (SAR) images of glaciers. The images are taken by six different sensor systems. A benchmark dataset for calving-front extraction is used for training and evaluation. The dataset contains two labels for each image. One label denotes a classic image segmentation into different zones (glacier, ocean, rock, and no information available). The other label marks the edge between the glacier and the ocean, i.e., the calving front. In this work, the nnU-Net is modified to predict both labels simultaneously. In the field of machine learning, the prediction of multiple labels is referred to as multi-task learning (MTL). The resulting predictions of both labels benefit from simultaneous optimization. For further testing of the capabilities of MTL, two different network architectures are compared, and an additional task, the segmentation of the glacier outline, is added to the training. In the end, we show that fusing the label of the calving front and the zone label is the most efficient way to optimize both tasks with no significant accuracy reduction compared to the MTL neural-network architectures. The automatic detection of the calving front with an nnU-Net trained on fused labels improves from the baseline mean distance error (MDE) of 753±76 to 541±84 m. The scripts for our experiments are published on GitHub (https://github.com/ho11laqe/nnUNet_calvingfront_detection, last access: 20 November 2023). An easy-access version is published on Hugging Face (https://huggingface.co/spaces/ho11laqe/nnUNet_calvingfront_detection, last access: 20 November 2023).
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