AI-assisted meta-analysis workflow for hepatocellular carcinoma comparative effectiveness research. Six-element prompt framework covering full pipeline from...
--- name: hcc-meta-ai description: AI-assisted meta-analysis workflow for hepatocellular carcinoma comparative effectiveness research. Six-element prompt framework covering full pipeline from literature screening to data extraction. Published skill accompanying the validated methodology paper. metadata: version: "1.0.0" author: "Shandong University Qilu Hospital" domain: "hepatocellular carcinoma meta-analysis" models: ["GPT-5.2", "GPT-4o", "DeepSeek V3.1"] --- # HCC Meta-Analysis AI Skill ## Overview This skill implements a standardized, AI-assisted meta-analysis workflow for comparing treatment efficacy in hepatocellular carcinoma (HCC). It follows a six-element prompt architecture (Role–Objective–Skills–Constraints–Workflow–Output) validated across two independent clinical questions with three large language models. The workflow covers the full meta-analysis pipeline: 1. Literature screening (fuzzy → precise → supplementation) 2. Full-text eligibility determination 3. Newcastle–Ottawa Scale (NOS) quality appraisal 4. Structured baseline data extraction 5. Clinical outcome data extraction **Validation**: Benchmarked against dual-independent manual review across two HCC projects with GPT-5.2, GPT-4o, and DeepSeek V3.1. Best-performing models achieved >95% accuracy at most stages with >80% total time reduction. ## When to Use - Conducting a meta-analysis comparing two HCC treatments - Need rapid evidence synthesis for HCC therapeutic comparison - Want to standardize the AI-assisted review process across projects - Teaching or replicating the validated AI meta-analysis methodology ## Six-Element Prompt Framework Every prompt in this workflow follows a standardized six-element structure: | Element | Purpose | Example | |---------|---------|---------| | **Role** | Defines AI's academic persona | "You are a clinical epidemiologist specializing in HCC..." | | **Objective** | States the specific task goal | "Screen titles for studies comparing treatment A vs B..." | | **Skills** | Lists required capabilities | "Identify medical terms, apply synonym rules, extract structured data" | | **Constraints** | Sets methodological boundaries | "Apply NOS scoring rules strictly; mark missing data as NA" | | **Workflow** | Specifies step-by-step execution | "Read title → check for intervention terms → classify" | | **Output** | Defines structured output format | "Output as JSON table with fields: PMID, Decision, Reason" | ## Workflow Stages ### Stage 1: Literature Screening Three sub-stages with escalating cognitive demands: 1. **Fuzzy Screening** — Title-level keyword matching - Batch 100 records per query - Check for presence of target disease + intervention terms - Template: `scripts/01-fuzzy-screening.md` 2. **Precise Screening** — Abstract-level multi-constraint reasoning - Evaluate title + abstract against inclusion criteria - Requires comparison of two interventions with reported outcomes - Template: `scripts/02-precise-screening.md` 3. **Literature Supplementation** — Citation tracing from full texts - Upload PDFs of included studies - Extract reference lists; flag potentially missed eligible studies - Template: `scripts/03-literature-supplement.md` ### Stage 2: Full-Text Eligibility Determination Full-text comprehension and multi-criteria decision-making: - Study population (primary HCC confirmed) - Direct comparison of two target treatments - ≥1 clinical outcome reported - Original study design (prospective/retrospective cohort, case-control, RCT) - Data separable by treatment group - Sample size ≥10 - Template: `scripts/04-eligibility.md` ### Stage 3: NOS Quality Appraisal Structured scoring across three domains: - **Selection** (4 items, max 4 pts): representativeness, non-exposed cohort, exposure ascertainment, outcome absent at baseline - **Comparability** (1 item, max 2 pts): confounder control - **Outcome** (3 items, max 3 pts): assessment objectivity, follow-up duration, follow-up completeness - Template: `scripts/05-nos-scoring.md` ### Stage 4: Baseline Data Extraction Structured extraction of study characteristics and patient demographics: - Core fields: author, year, design, treatment groups, sample size, age, sex, tumor characteristics, follow-up, laboratory values - Topic-specific extensions (see references) - Template: `scripts/06-baseline-extraction.md` ### Stage 5: Outcome Data Extraction Structured extraction of clinical endpoints: - 1–5 year overall survival (OS), recurrence-free survival (RFS) - Local tumor progression, distant recurrence, technical success - Complication rates and subtypes - Template: `scripts/07-outcome-extraction.md` ## Disease-Agnostic Design The six-element scaffold is independent of specific diseases. To adapt this workflow for a different disease: 1. Replace disease terminology in `references/terminology.json` 2. Swap intervention names in each prompt template 3. Adjust topic-specific extraction fields in baseline/outcome templates 4. Keep the core logical structure intact For HCC specifically, the pre-configured terminology and extraction fields in `references/` are ready to use. ## Platform A web-based platform for deploying and sharing this workflow is available at: http://8.149.142.6/metaexp/ ## References - Full methodology: see accompanying manuscript - Supplementary prompt details: S1 (Project 1 prompts), S2 (Project 2 prompts) - Terminology database: `references/terminology.json`
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