English

Manifold Criterion Guided Transfer Learning via Intermediate Domain Generation

Computer Vision and Pattern Recognition 2019-03-26 v1

Abstract

In many practical transfer learning scenarios, the feature distribution is different across the source and target domains (i.e. non-i.i.d.). Maximum mean discrepancy (MMD), as a domain discrepancy metric, has achieved promising performance in unsupervised domain adaptation (DA). We argue that MMD-based DA methods ignore the data locality structure, which, to some extent, would cause the negative transfer effect. The locality plays an important role in minimizing the nonlinear local domain discrepancy underlying the marginal distributions. For better exploiting the domain locality, a novel local generative discrepancy metric (LGDM) based intermediate domain generation learning called Manifold Criterion guided Transfer Learning (MCTL) is proposed in this paper. The merits of the proposed MCTL are four-fold: 1) the concept of manifold criterion (MC) is first proposed as a measure validating the distribution matching across domains, and domain adaptation is achieved if the MC is satisfied; 2) the proposed MC can well guide the generation of the intermediate domain sharing similar distribution with the target domain, by minimizing the local domain discrepancy; 3) a global generative discrepancy metric (GGDM) is presented, such that both the global and local discrepancy can be effectively and positively reduced; 4) a simplified version of MCTL called MCTL-S is presented under a perfect domain generation assumption for more generic learning scenario. Experiments on a number of benchmark visual transfer tasks demonstrate the superiority of the proposed manifold criterion guided generative transfer method, by comparing with other state-of-the-art methods. The source code is available in https://github.com/wangshanshanCQU/MCTL.

Keywords

Cite

@article{arxiv.1903.10211,
  title  = {Manifold Criterion Guided Transfer Learning via Intermediate Domain Generation},
  author = {Lei Zhang and Shanshan Wang and Guang-Bin Huang and Wangmeng Zuo and Jian Yang and David Zhang},
  journal= {arXiv preprint arXiv:1903.10211},
  year   = {2019}
}

Comments

This paper has been accepted by IEEE Transactions on Neural Networks and Learning Systems

R2 v1 2026-06-23T08:17:55.159Z