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TRCLA: A Transfer Learning Approach to Reduce Negative Transfer for Cellular Learning Automata.
IEEE Transactions on Neural Networks and Learning Systems
|September 2, 2021
Summary
This study introduces a novel transductive learning algorithm using cellular learning automata (CLA) to reduce negative transfers (NTs) in machine learning. The new approach enhances accuracy and minimizes NTs, improving model performance in real-world applications.
Area of Science:
- Machine Learning
- Artificial Intelligence
- Data Science
Background:
- Traditional machine learning assumes identical data distributions, which often fails in real-world scenarios.
- Transfer learning addresses distribution shifts but introduces negative transfer (NT) challenges.
- Existing research inadequately addresses the significant problem of NTs.
Purpose of the Study:
- To propose a novel transductive learning algorithm to alleviate the negative transfer (NT) issue.
- To introduce new decision criteria within cellular learning automata (CLA) to mitigate NTs.
- To enhance the performance of machine learning models in non-identical data distribution environments.
Main Methods:
- Developed a transductive learning algorithm based on cellular learning automata (CLA).
- Employed two established learning automata (LA) as estimator CLAs.
- Introduced novel 'merit' and 'attitude' parameters to CLA for NT limitation.
Main Results:
- The proposed CLA-based algorithm demonstrated reduced negative transfer (NT).
- Experimental results showed higher accuracy compared to existing methods.
- The algorithm effectively addressed challenges posed by non-identical data distributions.
Conclusions:
- The novel transductive learning algorithm based on CLA successfully mitigates negative transfer.
- The introduced decision criteria (merit and attitude parameters) are effective in limiting NTs.
- This approach offers improved accuracy and robustness for machine learning in diverse data environments.
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