AI-driven evidence integration
Investigating how large language models can support retrieval, synthesis and updating while preserving traceability.

Research focused on AI (large language model)-driven integration of evidence for evidence-based medicine, exploring global clinical Live Evidence and Patient-Centered Personalized Evidence production.
Research pathway: AI-driven evidence integration → global living evidence → patient-centered personalized evidence.
Investigating how large language models can support retrieval, synthesis and updating while preserving traceability.
Exploring systems and methods that connect global clinical research, continuously update evidence and track changes.
Investigating how patient questions, goals, preferences and comorbidity can inform relevant, transparent and reviewable evidence.
Organises evidence generation and use around patient goals, comorbidity and specific decisions, and identifies the steps requiring evaluation between medical answers and living evidence.
Works with co-authors on the review of preoperative social connection and postoperative outcomes, organising 20,399 deduplicated records and 445 studies; now advancing musculoskeletal–metabolic comorbidity synthesis.
Works with co-authors to connect sources, effect selection, statistical contributions, corrections and released versions. Internal evaluation in one review case is complete, with independent comparisons planned.
The systematic review and meta-analysis of preoperative social connection and postoperative outcomes was released as a manuscript. Chuan Yin is first author, working with the research team; 72 studies enter at least one quantitative synthesis.
Read the manuscriptAn author manuscript with Zhicheng Zhang proposes a framework for evidence generation and use, starting with patient goals, comorbidity and clinical questions.
Read the manuscriptPublished the single-author review manuscript, Large Language Models in Medical Decision Making from Clinical Answers to Living Evidence, connecting research questions across retrieval, synthesis, updating and individual decisions.
Read the manuscriptThe second version of the methods manuscript with Zehao Jing and Zhicheng Zhang evaluates source, correction and version links in one review case: 50 root-cause events, 46 resolved and 4 retained limitations.
Read the manuscriptThe musculoskeletal–metabolic comorbidity systematic review and meta-analysis is in the review stage. Conventional synthesis will provide the baseline for evaluating mixed-information synthesis and individual applicability.
A traditional systematic review and meta-analysis assisted by LLMs is in the review stage.
Next stepComplete conventional synthesis, then use the case to evaluate mixed-information synthesis and individual applicability.
Method boundaries and an evaluation design compare conventional and mixed-information synthesis for coverage and credibility.
Next stepTest additional information, statistical coherence and clinical value in the comorbidity review.
A decision-material evaluation design is established; comorbidity evidence will support further evaluation of individual applicability.
Next stepEvaluate applicability, traceability, justified abstention and decision quality; confidence alone is insufficient.
Complete LLM-assisted conventional systematic review and meta-analysis, retaining eligibility, extraction and reasons for non-pooling to support subsequent method comparisons.
Compare how much credible information can be retained when measures, time windows or statistical reporting differ, and assess statistical coherence and clinical value.
Assess individual applicability, traceability and justified abstention around comorbidity and patient goals, then develop independent comparisons and evaluations of evidence updating.