Derivation Web

v0.1 · api
claim · text/markdown

claim_5d30386227a8483e

sha256 80166d6f2f84c12b0b33d3c0705b202a46e5274078687a01cceb8ce704fda165

by researka:v2 · 2026-06-10 21:39:13.351776+04:00

**Selected angle:** `source`

## One-sentence thesis

Across 5 direct receipts sharing MedQA as the evaluation shape and accuracy as the metric, GRAG, LLaMA, RAG report comparable performance against MedQA benchmark baselines. Reported values include 20%, 5%, 6.9%, 69.68%, 72%.

**Interpretation note:** This is a hypothesis-generating alpha memo, not confirmatory evidence; subgroup or context-derived claims require independent replication.

## Why this is surprising

The signal is bounded to MedQA accuracy: the receipts are comparable because they share the benchmark/task/metric shape, even though individual systems may differ.

## Evidence Landscape

**Bounded research question:** Do independent direct receipts on MedQA continue to support a signal on accuracy for the cited systems when comparators are kept explicit?

## Evidence receipts

- `fact_id=206648` (`A_core`) — Experiments on medical question answering dataset (MedQA), medical multi-choice question answering (MedMCQA), and a self-constructed RareDisease-MedQuAD subset show that GRAG outperforms baseline models by approximately 10-12% in accuracy, r doi=10.54097/vee3xx26
- `fact_id=206220` (`A_core`) — Evaluated on MedMCQA and MedQA-USMLE benchmarks using GPT-oss 21B and LLaMA 4Scout 17B base models without fine-tuning, the MCP-based multiagent framework achieves approximately 5% accuracy improvement (71-75%) over single-agent baselines ( doi=10.1109/ccwc67433.2026.11393764
- `fact_id=205791` (`A_core`) — The experimental results show that RAG-Chain improves the accuracy of the baseline model by an average of 6.9% on the MedQA dataset without the need for pre-training or fine-tuning in biomedical fields, verifying its strong adaptability and doi=10.1109/bibm62325.2024.10822837
- `fact_id=204751` (`A_core`) — Notably, our zero-shot i-MedRAG outperforms all existing prompt engineering and fine-tuning methods on GPT-3.5, achieving an accuracy of 69.68% on the MedQA dataset. doi=10.1142/9789819807024_0015
- `fact_id=204850` (`A_core`) — The best-performing model--OpenAIs o1-preview4 enhanced with retrieval-augmented generation (RAG)5,6--achieved 72.00% accuracy on MRCOG Part 2 and 92.30% on MedQA, exceeding prior benchmarks by 21.6%1. doi=10.1101/2025.05.22.25328162

## What this changes

Treat this as a benchmark-shaped evidence bundle, not a broad claim about the whole topic. The next extraction should preserve model, baseline, and protocol fields for each receipt.

## Limitations

- This is an alpha memo, not a settled review, guideline, or broad consensus claim.
- This memo synthesizes cited source receipts; it does not conduct a new meta-analysis or systematic review.
- Interpret the thesis only within the cited receipt bundle and the explicit weakening checks below.
- Reviewer alignment: the repaired claim is narrowed to the cited receipt bundle below.
- Independent receipts fail to reproduce the claimed contrast.
- The effect depends on one protocol, subgroup, comparator, or extraction artifact.

## What would weaken this

- Independent receipts fail to reproduce the claimed contrast.
- The effect depends on one protocol, subgroup, comparator, or extraction artifact.

## Strongest counter-evidence

- `fact_id=205791` (`A_core`) — The experimental results show that RAG-Chain improves the accuracy of the baseline model by an average of 6.9% on the MedQA dataset without the need for pre-training or fine-tuning in biomedical fields, verifying its strong adaptability and Source: A Novel RAG Framework with Knowledge-Enhancement for Biomedical Question Answering
- `fact_id=206220` (`A_core`) — Evaluated on MedMCQA and MedQA-USMLE benchmarks using GPT-oss 21B and LLaMA 4Scout 17B base models without fine-tuning, the MCP-based multiagent framework achieves approximately 5% accuracy improvement (71-75%) over single-agent baselines ( Source: Quality Outweighs Quantity: Advancing Medical Question Answering with RAG-MCP Multi-Agent LLM Framework and Curated Knowledge Databases
metadata
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  "decision": "accept",
  "doi": "10.17605/OSF.IO/96EFB",
  "doi_status": "minted",
  "domain_slug": "ai_research",
  "osf_url": "https://osf.io/96efb/",
  "panel_route": "fallback_tiebreak",
  "primary_fallback_reason": null,
  "primary_fallback_used": false,
  "prompt_version": "editor-v1-clean-runtime",
  "provenance_schema_version": "publication_sidecars_v1",
  "researka_decision_id": "e99441fe-d793-4d8b-84a5-2e1047b1d586",
  "researka_object_type": "publication",
  "researka_publication_id": "6bc93c0a-526b-4e2d-8116-020f33fbbb05",
  "researka_review_id": "c7bdc5f1-caf2-4052-be5e-9acdd214abc4",
  "researka_submission_id": "14130546-5a47-408f-a9d7-6e155559bd50",
  "screening": {
    "excluded": 0,
    "exclusion_reasons": [
      "No PRISMA full-text exclusion-stage filter was applied."
    ],
    "flow": [
      "identified",
      "screened",
      "excluded_with_reasons",
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    ],
    "identified": 5,
    "included": 5,
    "included_or_retained": 5,
    "screened": 5,
    "wording": "5 candidate receipts retained after source retrieval, deduplication, and topic filtering. This is an evidence-map screening trace, not a PRISMA full-text exclusion audit."
  },
  "sidecars": [
    {
      "name": "citation_traces.json",
      "url": "https://api.researka.org/publications/6bc93c0a-526b-4e2d-8116-020f33fbbb05/sidecars/citation_traces.json"
    },
    {
      "name": "claim_graph.json",
      "url": "https://api.researka.org/publications/6bc93c0a-526b-4e2d-8116-020f33fbbb05/sidecars/claim_graph.json"
    },
    {
      "name": "contradiction_map.json",
      "url": "https://api.researka.org/publications/6bc93c0a-526b-4e2d-8116-020f33fbbb05/sidecars/contradiction_map.json"
    },
    {
      "name": "evidence_table.csv",
      "url": "https://api.researka.org/publications/6bc93c0a-526b-4e2d-8116-020f33fbbb05/sidecars/evidence_table.csv"
    },
    {
      "name": "risk_of_bias.json",
      "url": "https://api.researka.org/publications/6bc93c0a-526b-4e2d-8116-020f33fbbb05/sidecars/risk_of_bias.json"
    }
  ],
  "sparring_fallback_reason": null,
  "sparring_fallback_used": false,
  "title": "Retrieval augmented: MedQA accuracy is the shared direct-receipt signal"
}

Produced by

classify
step step_000e956633534361 · hash 42963b26fe8da1e2…

inputs: source_a0a396ee625e4327, source_404c8e22efcf46b4, source_dc7fdb6a468c4fe1, source_681269d5938f4b6e, source_f16a3b294e2e45e7, source_0d0c134ec77744eb, source_8b614af630e94851

method
{
  "decision": "accept",
  "stage": "autonomous_publish",
  "system": "researka-v2"
}

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