🤖 AI Summary
Traditional thematic analysis (TA) for clinical interview data is labor-intensive, while existing large language model (LLM)-based TA methods lack medical domain expertise and interpretability. Method: We propose a human-in-the-loop, multi-agent LLM framework tailored for pediatric cardiology. It integrates domain-specific cardiac knowledge via role-based prompt engineering, structured agent dialogue, iterative consensus negotiation, and closed-loop human feedback to enable expert-guided theme generation and validation. Results: Evaluated on parent interviews from children with anomalous aortic origin of a coronary artery (AAOCA), our approach significantly improves theme recall, coverage, and discriminability over prior LLM-TA methods, while reducing manual effort by over 60%. This work introduces the first explainable, editable, and verifiable multi-agent TA paradigm for medicine, establishing a robust, efficient human–AI collaboration pathway for clinical qualitative research.
📝 Abstract
Thematic analysis (TA) is a widely used qualitative approach for uncovering latent meanings in unstructured text data. TA provides valuable insights in healthcare but is resource-intensive. Large Language Models (LLMs) have been introduced to perform TA, yet their applications in healthcare remain unexplored. Here, we propose TAMA: A Human-AI Collaborative Thematic Analysis framework using Multi-Agent LLMs for clinical interviews. We leverage the scalability and coherence of multi-agent systems through structured conversations between agents and coordinate the expertise of cardiac experts in TA. Using interview transcripts from parents of children with Anomalous Aortic Origin of a Coronary Artery (AAOCA), a rare congenital heart disease, we demonstrate that TAMA outperforms existing LLM-assisted TA approaches, achieving higher thematic hit rate, coverage, and distinctiveness. TAMA demonstrates strong potential for automated TA in clinical settings by leveraging multi-agent LLM systems with human-in-the-loop integration by enhancing quality while significantly reducing manual workload.