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A Hybrid Evolutionary Computation Approach to Inducing Transfer Classifiers for Domain Adaptation
IEEE Transactions on Cybernetics
|April 11, 2020
Summary
This study introduces an evolutionary computation approach for transfer classifier induction, enhancing domain adaptation. The novel method optimizes manifold consistency and domain difference, outperforming existing algorithms.
Area of Science:
- Machine Learning
- Artificial Intelligence
- Computer Science
Background:
- Domain adaptation aims to leverage knowledge from a source domain to improve performance in a related target domain.
- Traditional methods often align domains before classification, while transfer classifier induction integrates alignment into classifier construction.
- Existing transfer classifier induction methods, primarily gradient-based, risk getting stuck in local optima.
Purpose of the Study:
- To propose a novel transfer classifier induction algorithm using evolutionary computation to overcome limitations of gradient-based approaches.
- To introduce a low-dimensionality representation for transfer classifiers.
- To develop a hybrid optimization process balancing manifold consistency and domain difference.
Main Methods:
- A transfer classifier induction algorithm based on evolutionary computation.
- A novel, lower-dimensional representation for transfer classifiers.
- A hybrid optimization process combining evolutionary search for manifold consistency and gradient-based local search for domain difference reduction.
Main Results:
- The proposed algorithm achieved superior performance compared to seven traditional and four deep domain adaptation methods.
- The evolutionary approach effectively addressed the local optima issue inherent in gradient-based methods.
- The novel representation and hybrid optimization successfully balanced key domain adaptation objectives.
Conclusions:
- Evolutionary computation offers a robust alternative for transfer classifier induction in domain adaptation.
- The proposed method demonstrates significant improvements in classification performance across domains.
- This work advances domain adaptation techniques by integrating global search with local refinement.
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