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Making sense of transformer success
Nicola Angius1, Pietro Perconti1, Alessio Plebe1
1Department of Cognitive Science, University of Messina, Messina, Italy.
Frontiers in Artificial Intelligence
|April 16, 2025
Summary
This study analyzes how neural language models (NLMs) achieve linguistic competence. It finds their explanatory strategies mirror those in cognitive science, bridging the "how machines think" gap.
Area of Science:
- Philosophy of Artificial Intelligence
- Cognitive Science
- Computational Linguistics
Background:
- The central question in AI philosophy has shifted from 'can machines think?' to 'how can machines think?'.
- Neural Language Models (NLMs), particularly those based on the Transformer architecture, present an explanatory gap regarding their linguistic competence.
Purpose of the Study:
- To epistemologically analyze current explanations for NLMs' linguistic competence.
- To compare explanatory strategies for NLMs with those used in cognitive science.
- To investigate the mechanisms behind in-context learning and explore co-simulation approaches.
Main Methods:
- Analysis of existing explanatory strategies for NLMs.
- Examination of experimental studies on theory of mind, discourse entity tracking, and property induction in NLMs.
- Review of functional analysis in cognitive science and mechanistic explanations of in-context learning (copying algorithm, induction head).
Main Results:
- Explanatory strategies for NLMs are comparable to those in cognitive science.
- The 'copying algorithm' and 'induction head' offer mechanistic explanations for in-context learning.
- Pioneering attempts at co-simulation between NLMs and brain activity are emerging.
Conclusions:
- Current explanations for NLMs' capabilities align with established cognitive science methodologies.
- Mechanistic insights into in-context learning are being developed.
- Co-simulation presents a novel approach for understanding language processing in both AI and humans.
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