Measuring Research Convergence in Interdisciplinary Teams Using Large Language Models and Graph Analytics

arXiv cs.AI / 2026/3/24

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要点

  • The paper proposes a multi-layer AI framework that combines large language models, graph analytics, and human-in-the-loop evaluation to measure how interdisciplinary research teams converge on shared knowledge over time.
  • It uses LLMs to extract structured research viewpoints mapped to the NABC (Needs-Approach-Benefits-Competition) framework and to infer potential “viewpoint flows” between presenters to create a common semantic foundation.
  • The framework supports three complementary analyses: similarity-based qualitative grouping of viewpoints (popular vs. unique), quantitative cross-domain influence using network centrality metrics, and temporal analysis of convergence dynamics.
  • To mitigate uncertainty from LLM-based inference, it adds expert validation via structured surveys and cross-layer consistency checks to verify alignment across components.
  • A case study on water insecurity research within the Arizona Water Innovation Initiatives shows increasing viewpoint convergence and reveals domain-specific influence patterns, illustrating the framework’s practical value.

Abstract

Understanding how interdisciplinary research teams converge on shared knowledge is a persistent challenge. This paper presents a novel, multi-layer, AI-driven analytical framework for mapping research convergence in interdisciplinary teams. The framework integrates large language models (LLMs), graph-based visualization and analytics, and human-in-the-loop evaluation to examine how research viewpoints are shared, influenced, and integrated over time. LLMs are used to extract structured viewpoints aligned with the \emph{Needs-Approach-Benefits-Competition (NABC)} framework and to infer potential viewpoint flows across presenters, forming a common semantic foundation for three complementary analyses: (1) similarity-based qualitative analysis to identify two key types of viewpoints, popular and unique, for building convergence, (2) quantitative cross-domain influence analysis using network centrality measures, and (3) temporal viewpoint flow analysis to capture convergence dynamics. To address uncertainty in LLM-based inference, the framework incorporates expert validation through structured surveys and cross-layer consistency checks. A case study on water insecurity in underserved communities as part of the Arizona Water Innovation Initiatives demonstrates increasing viewpoint convergence and domain-specific influence patterns, illustrating the value of the proposed AI-enabled approach for research convergence analysis.