Model architecture can transform catastrophic forgetting into positive transfer
Miguel Ruiz-Garcia

TL;DR
This paper demonstrates that neural network architecture significantly influences catastrophic forgetting, showing that a specially designed model can learn algorithms like binary addition without forgetting and even improve with training.
Contribution
It introduces a neural network architecture capable of learning binary addition algorithms and avoiding catastrophic forgetting, highlighting the importance of architecture choice for algorithm learning.
Findings
The new neural network avoids catastrophic forgetting during addition tasks.
The model improves its accuracy on unseen data as training progresses.
The effect is robust across multiple simulations.
Abstract
The work of McCloskey and Cohen popularized the concept of catastrophic interference. They used a neural network that tried to learn addition using two groups of examples as two different tasks. In their case, learning the second task rapidly deteriorated the acquired knowledge about the previous one. We hypothesize that this could be a symptom of a fundamental problem: addition is an algorithmic task that should not be learned through pattern recognition. Therefore, other model architectures better suited for this task would avoid catastrophic forgetting. We use a neural network with a different architecture that can be trained to recover the correct algorithm for the addition of binary numbers. This neural network includes conditional clauses that are naturally treated within the back-propagation algorithm. We test it in the setting proposed by McCloskey and Cohen and training on…
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Taxonomy
TopicsNumerical Methods and Algorithms · Model Reduction and Neural Networks · Topic Modeling
