Making sense of transformer success

This article provides an epistemological analysis of current attempts of explaining how the relatively simple algorithmic components of neural language models (NLMs) provide them with genuine linguistic competence. After introducing the Transformer architecture, at the basis of most of current NLMs, the paper firstly emphasizes how the central question in the philosophy of AI has been shifted from "can machines think?", as originally put by Alan Turing, to "how <i>can</i> machines think?", pointing to an explanatory gap for NLMs. Subsequently, existing explanatory strategies for the functioning of NLMs are analyzed to argue that they, however debated, do not differ from the explanatory strategies used in cognitive science to explain intelligent behaviors of humans. In particular, available experimental studies turned to test the <i>theory of mind, discourse entity tracking</i>, and <i>property induction</i> in NLMs are examined under the light of the <i>functional analysis</i> in the philosophy of cognitive science; the so-called <i>copying algorithm</i> and the <i>induction head</i> phenomenon of a Transformer are shown to provide a <i>mechanist</i> explanation of <i>in-context learning</i>; finally, current pioneering attempts to use NLMs to predict brain activation patterns when processing language are here shown to involve what we call a <i>co-simulation</i>, in which a NLM and the brain are used to simulate and understand each other.

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Publication Details

Journal
Frontiers in Artificial Intelligence
Published
2025-04-01
DOI
https://doi.org/10.3389/frai.2025.1509338
Primary Topic
Organizational Management and Leadership
Type
article
Field-Weighted Citation Impact
0.00

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article

Making sense of transformer success

Nicola Angius, Alessio Plebe, Pietro Perconti, Alessandro Acciai
Frontiers in Artificial Intelligence
Organizational Management and Leadership
article

Making sense of transformer success

Nicola Angius, Alessio Plebe, Pietro Perconti, Alessandro Acciai
article en

Abstract

This article provides an epistemological analysis of current attempts of explaining how the relatively simple algorithmic components of neural language models (NLMs) provide them with genuine linguistic competence. After introducing the Transformer architecture, at the basis of most of current NLMs, the paper firstly emphasizes how the central question in the philosophy of AI has been shifted from "can machines think?", as originally put by Alan Turing, to "how <i>can</i> machines think?", pointing to an explanatory gap for NLMs. Subsequently, existing explanatory strategies for the functioning of NLMs are analyzed to argue that they, however debated, do not differ from the explanatory strategies used in cognitive science to explain intelligent behaviors of humans. In particular, available experimental studies turned to test the <i>theory of mind, discourse entity tracking</i>, and <i>property induction</i> in NLMs are examined under the light of the <i>functional analysis</i> in the philosophy of cognitive science; the so-called <i>copying algorithm</i> and the <i>induction head</i> phenomenon of a Transformer are shown to provide a <i>mechanist</i> explanation of <i>in-context learning</i>; finally, current pioneering attempts to use NLMs to predict brain activation patterns when processing language are here shown to involve what we call a <i>co-simulation</i>, in which a NLM and the brain are used to simulate and understand each other.

Frontiers in Artificial IntelligenceVol. 8
University of Messina (IT)
Ministero dell'Università e della Ricerca
Openalex Percentile: Top 92%
Organizational Management and Leadership
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