Constructing BERT Models: How Team Dynamics and Focus Shape AI Model Impact

Abstract The rapid evolution of AI technologies, exemplified by BERT-family models, has transformed scientific research, yet little is known about their production and recognition dynamics in the scientific system. This study investigates the development and impact of BERT-family models, focusing on team size, topic specialization, and citation patterns behind the models. Using a dataset of 4,208 BERT-related papers from the Papers with Code (PWC) dataset, we analyze how the BERT-family models evolve across methodological generations and how the newness of models is correlated with their production and recognition. Our findings reveal that newer BERT models are developed by larger, more experienced, and institutionally diverse teams, reflecting the increasing complexity of AI research. Additionally, these models exhibit greater topical specialization, targeting niche applications, which aligns with broader trends in scientific specialization. However, newer models receive fewer citations, particularly over the long term, suggesting a “first-mover advantage,” where early models like BERT garner disproportionate recognition. These insights highlight the need for equitable evaluation frameworks that value both foundational and incremental innovations. This study underscores the evolving interplay between collaboration, specialization, and recognition in AI research.

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Publication Details

Journal
Quantitative Science Studies
Published
2026-02-23
DOI
https://doi.org/10.1162/qss.a.461
Primary Topic
Artificial Intelligence in Healthcare and Education
Type
article
Field-Weighted Citation Impact
0.00
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article

Constructing BERT Models: How Team Dynamics and Focus Shape AI Model Impact

Likun Cao, Kai Li
Quantitative Science Studies
Artificial Intelligence in Healthcare and Education
article

Constructing BERT Models: How Team Dynamics and Focus Shape AI Model Impact

Likun Cao, Kai Li
article en

Abstract

Abstract The rapid evolution of AI technologies, exemplified by BERT-family models, has transformed scientific research, yet little is known about their production and recognition dynamics in the scientific system. This study investigates the development and impact of BERT-family models, focusing on team size, topic specialization, and citation patterns behind the models. Using a dataset of 4,208 BERT-related papers from the Papers with Code (PWC) dataset, we analyze how the BERT-family models evolve across methodological generations and how the newness of models is correlated with their production and recognition. Our findings reveal that newer BERT models are developed by larger, more experienced, and institutionally diverse teams, reflecting the increasing complexity of AI research. Additionally, these models exhibit greater topical specialization, targeting niche applications, which aligns with broader trends in scientific specialization. However, newer models receive fewer citations, particularly over the long term, suggesting a “first-mover advantage,” where early models like BERT garner disproportionate recognition. These insights highlight the need for equitable evaluation frameworks that value both foundational and incremental innovations. This study underscores the evolving interplay between collaboration, specialization, and recognition in AI research.

Quantitative Science Studies
Purdue University West Lafayette (US), Knoxville College (US), University of Chicago (US), University of Tennessee at Knoxville (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 47%
Artificial Intelligence in Healthcare and Education
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