A review of single-source unsupervised domain adaptation
Domain adaptation has become a prominent problem setting in machine learning and related fields. This review asks the questions: when and how a classifier can learn from a source domain and generalize to a target domain. As for when, we review conditions that allow for cross-domain generalization error bounds. As for how, we present a categorization of approaches, divided into, what we refer to as, sample-based, feature-based and inference-based methods. Sample-based methods focus on weighting individual observations during training based on their importance to the target domain. Feature-based methods focus on mapping, projecting and representing features such that a source classifier performs well on the target domain and inference-based methods focus on alternative estimators, such as robust, minimax or Bayesian. Our categorization highlights recurring ideas and raises a number of questions important to further research.
Jan-16-2019
- Country:
- Africa (0.04)
- North America > United States
- New York (0.04)
- California > Los Angeles County
- Long Beach (0.14)
- Europe
- United Kingdom > England
- Cambridgeshire > Cambridge (0.04)
- Netherlands > South Holland
- Delft (0.04)
- Hungary > Budapest
- Budapest (0.04)
- Denmark > Capital Region
- Copenhagen (0.04)
- United Kingdom > England
- Asia
- Middle East > Jordan (0.04)
- Japan > Honshū
- Chūbu > Ishikawa Prefecture > Kanazawa (0.04)
- Genre:
- Overview (1.00)
- Research Report > Experimental Study (0.67)
- Industry:
- Health & Medicine
- Therapeutic Area (1.00)
- Pharmaceuticals & Biotechnology (1.00)
- Diagnostic Medicine > Imaging (1.00)
- Health & Medicine
- Technology:
- Information Technology
- Sensing and Signal Processing > Image Processing (1.00)
- Data Science > Data Mining (1.00)
- Biomedical Informatics (1.00)
- Artificial Intelligence
- Vision (1.00)
- Natural Language (1.00)
- Robots (0.92)
- Representation & Reasoning > Uncertainty
- Bayesian Inference (0.93)
- Machine Learning
- Statistical Learning (1.00)
- Neural Networks > Deep Learning (0.67)
- Learning Graphical Models > Directed Networks
- Bayesian Learning (0.67)
- Information Technology