Deep learning has achieved great success in the challenging circuit annotation task by employing Convolutional Neural Networks (CNN) for the segmentation of circuit structures. The deep learning approaches require a large amount of manually annotated training data to achieve a good performance, which could cause a degradation in performance if a deep learning model trained on a given dataset is applied to a different dataset. This is commonly known as the domain shift problem for circuit annotation, which stems from the possibly large variations in distribution across different image datasets. The different image datasets could be obtained from different devices or different layers within a single device. To address the domain shift problem, we propose Histogram-gated Image Translation (HGIT), an unsupervised domain adaptation framework which transforms images from a given source dataset to the domain of a target dataset, and utilize the transformed images for training a segmentation network. Specifically, our HGIT performs generative adversarial network (GAN)-based image translation and utilizes histogram statistics for data curation. Experiments were conducted on a single labeled source dataset adapted to three different target datasets (without labels for training) and the segmentation performance was evaluated for each target dataset. We have demonstrated that our method achieves the best performance compared to the reported domain adaptation techniques, and is also reasonably close to the fully supervised benchmark.
翻译:深层学习通过使用进化神经网络(CNN)对电路结构进行分解,在具有挑战性的电路批注任务中取得了巨大成功。深层学习方法需要大量人工手动附加说明的培训数据才能取得良好的性能,如果对不同的数据集应用在特定数据集上受过训练的深层学习模型,则可能会造成性能退化。这通常被称为电路批注的域变换问题,因为不同图像数据集分布可能差异很大。不同的图像数据集可以从不同设备或单一设备的不同层中获取。为了解决域变换问题,我们提议采用直方图图像变换(HGIT),这是一个不受监督的域调整框架,将特定源数据集中的图像转换到目标数据集的域,并利用变换图像对分解网络进行培训。具体地说,我们的高端图像转换基于基因化的对立网络(GAN)图像转换,并使用直方图统计用于数据校正。在单一的标签源数据集上进行了实验,并调整为三种不同的目标变近的域段,我们所显示的性能测试也实现了最佳性能调整。