Distinct patterns of syntactic agreement errors in recurrent networks and humans
Tal Linzen, Brian Leonard

TL;DR
This study compares how recurrent neural networks and humans make syntactic agreement errors, revealing both similarities and fundamental differences in their underlying representations despite similar overall performance.
Contribution
The paper provides a detailed comparison of error patterns between RNNs and humans, highlighting key differences in syntactic processing and representation.
Findings
RNNs and humans both exhibit attraction errors and asymmetry in agreement errors.
Error rates in RNNs increase with sentence complexity, unlike in humans.
RNNs show cumulative effects of attractors, which humans do not.
Abstract
Determining the correct form of a verb in context requires an understanding of the syntactic structure of the sentence. Recurrent neural networks have been shown to perform this task with an error rate comparable to humans, despite the fact that they are not designed with explicit syntactic representations. To examine the extent to which the syntactic representations of these networks are similar to those used by humans when processing sentences, we compare the detailed pattern of errors that RNNs and humans make on this task. Despite significant similarities (attraction errors, asymmetry between singular and plural subjects), the error patterns differed in important ways. In particular, in complex sentences with relative clauses error rates increased in RNNs but decreased in humans. Furthermore, RNNs showed a cumulative effect of attractors but humans did not. We conclude that at least…
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Taxonomy
TopicsNeurobiology of Language and Bilingualism · Text Readability and Simplification · Topic Modeling
