迁移学习与深度域适应

Wen Xu, Jing He, Yanfeng Shu
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引用次数: 20

摘要

迁移学习是机器学习中的一种新兴技术,它可以利用从旧任务中获得的知识来解决新任务,以解决标记数据缺乏的问题。特别是深度域自适应(迁移学习的一个分支)在最近发表的文章中得到了最多的关注。这背后的直觉是,深度神经网络通常具有从一个数据集学习表示的大容量,并且部分信息可以进一步用于新任务。在本研究中,我们首先根据迁移学习的领域和任务提出了迁移学习的完整场景。其次,对深度域自适应的相关研究进行了全面的综述,并根据实现方法将深度域自适应的最新进展分为三类:微调网络、对抗域自适应和样本重建方法。第三,我们讨论了这些方法的细节,并介绍了一些典型的现实应用。最后,我们总结了我们的工作,并探讨了一些可能需要进一步解决的问题。
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Transfer Learning and Deep Domain Adaptation
Transfer learning is an emerging technique in machine learning, by which we can solve a new task with the knowledge obtained from an old task in order to address the lack of labeled data. In particular deep domain adaptation (a branch of transfer learning) gets the most attention in recently published articles. The intuition behind this is that deep neural networks usually have a large capacity to learn representation from one dataset and part of the information can be further used for a new task. In this research, we firstly present the complete scenarios of transfer learning according to the domains and tasks. Secondly, we conduct a comprehensive survey related to deep domain adaptation and categorize the recent advances into three types based on implementing approaches: fine-tuning networks, adversarial domain adaptation, and sample-reconstruction approaches. Thirdly, we discuss the details of these methods and introduce some typical real-world applications. Finally, we conclude our work and explore some potential issues to be further addressed.
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