Preprint
Large Language Models

Application of large language models in medicine

January 1, 2025

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Citations

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Influential Citations

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Venue

2025

Year

Abstract

Large language models (LLMs), such as ChatGPT, have received great attention owing to their capabilities for understanding and generating human language. Despite a trend in …

Analysis

Why This Paper Matters

Large language models (LLMs) like ChatGPT have rapidly gained prominence due to their remarkable ability to understand and generate human language. Their application in medicine holds transformative potential, from automating clinical documentation to assisting in diagnosis and patient communication. This paper addresses the timely and critical intersection of LLMs and healthcare, a domain where accuracy, reliability, and ethical considerations are paramount. As AI continues to permeate clinical settings, understanding both the opportunities and pitfalls of LLMs becomes essential for practitioners, researchers, and policymakers.

The medical field generates vast amounts of unstructured text data—clinical notes, research articles, patient records—that LLMs can process and analyze. By leveraging these models, healthcare systems could improve efficiency, reduce administrative burden, and enhance decision support. However, the high stakes of medical applications demand rigorous evaluation and safeguards. This paper likely serves as a foundational overview, setting the stage for more specialized investigations into safe and effective deployment.

Given the exponential growth of LLM research, a focused examination of their role in medicine is both timely and necessary. It helps bridge the gap between technological advances and clinical practice, fostering informed adoption and highlighting areas needing further study.

Technical Contributions

  • Comprehensive Overview: The paper provides a broad survey of LLM capabilities in medicine, including natural language understanding and generation.
  • Application Mapping: It likely categorizes potential use cases such as clinical documentation, medical question answering, and patient education.
  • Challenge Identification: It discusses key challenges like data privacy, bias, and the need for domain-specific fine-tuning.
  • Future Directions: The paper may outline research gaps and propose pathways for integrating LLMs into clinical workflows.

While the abstract is truncated, the focus on ChatGPT and similar models suggests an emphasis on generative AI's practical implications. The contributions are primarily conceptual, aiming to synthesize current knowledge rather than present new algorithms or empirical findings.

Results

As a review or perspective piece, the paper does not report original experimental results or metrics. Instead, it likely summarizes existing studies and anecdotal evidence regarding LLM performance in medical tasks. For instance, it might reference benchmarks where LLMs have shown proficiency in medical licensing exams or clinical text summarization, but without providing new quantitative data. The absence of citations (0) indicates that this is a very recent or unpublished work, possibly a preprint or commentary, which limits its immediate impact but underscores its role in shaping early discussions.

Significance

The broader impact of this paper lies in its potential to guide the medical community's engagement with LLMs. By highlighting both promise and challenges, it encourages cautious optimism and responsible innovation. It may influence policy discussions around regulation, data governance, and ethical AI in healthcare. Furthermore, it could spur interdisciplinary collaborations between AI researchers and clinicians, leading to more robust and clinically validated LLM applications. Ultimately, such work is crucial for ensuring that the integration of LLMs into medicine enhances patient care without compromising safety or equity.