docs: record that uploaded skills can dispatch a built-in sub-agent (#1040) (#1045)
- docs: record that uploaded skills can dispatch a built-in sub-agent (#1040)
A 2026-11-02 check on Claude Desktop (chat merged with Cowork, ARS plugin removed) found:
- claude.ai refuses an upload named deep-research, because Anthropic already provides a skill with that name. The skill uploaded and ran as ars-deep-research.
- In a conversation, the uploaded skill dispatched a built-in Explore sub-agent, which read agents/synthesis_agent.md from the skill.
- The 1,021-character description was accepted. Anthropic’s Create custom skills page allows 1,024 characters and asks for the skill folder at the top of the zip.
SETUP Method 3 (en/zh-TW) now builds zips with the skill folder at the top and uploads deep-research as ars-deep-research. The trade-off paragraph and Method 4a state what was observed and what is untested, drop the 200-character claims, and point 4a at Method 3’s steps. CONTROL_AVAILABILITY marks Cowork subagent orchestration and sr-screener dual review as Untested and adds note 12.
Closes #1040
Co-Authored-By: Claude Opus 5.5 noreply@anthropic.com
- docs: name Claude Desktop as the tested surface and use Customize -> Skills (#1040)
Co-Authored-By: Claude Opus 5.5 noreply@anthropic.com
- docs: record the second upload check with the documented zip layout (#1040)
Co-Authored-By: Claude Opus 5.5 noreply@anthropic.com
Co-authored-by: Claude Opus 5.5 noreply@anthropic.com
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Academic Research Skills for Claude Code
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A comprehensive suite of Claude Code skills for academic research, covering the full pipeline from research to publication.
Install in 30 seconds (Claude Code CLI / VS Code / JetBrains, v3.7.0+):
Then try
/ars-planto walk through your paper structure via Socratic dialogue, or jump to Quick install for prerequisites and the traditional symlink flow.On claude.ai or Claude Desktop (paid plans), add the same repository under Customize → Plugins → Add → Add marketplace → Add from a repository, then install
academic-research-skills. Hooks and plugin agents do not run in plain chat there; see SETUP Method 0.Why human-in-the-loop, not full automation?
Lu et al. (2026, Nature 651:914-919) built The AI Scientist — the first fully autonomous AI research system to publish a paper through blind peer review at a top-tier ML venue (ICLR 2025 workshop, score 6.33/10 vs workshop average 4.87). Their Limitations section enumerates the failure modes that any fully-autonomous AI research pipeline inherits: implementation bugs, hallucinated results, shortcut reliance, bug-as-insight reframing, methodology fabrication, frame-lock, citation hallucinations.
ARS is built on the premise that a human researcher augmented by AI avoids these failure modes better than either alone. Stage 2.5 and Stage 4.5 integrity gates run a 7-mode blocking checklist (see
academic-pipeline/references/ai_research_failure_modes.md); the reviewer offers an opt-in calibration mode that measures its own FNR/FPR against a user-supplied gold set.Zhao et al. (2026-05) audited 111M references across 2.5M papers on arXiv, bioRxiv, SSRN, and PMC. Their conservative estimate is 146,932 hallucinated citations for 2025 alone, with an observed mid-2024 inflection; for the bioRxiv-to-PMC pairing they report 85.3% preprint-to-published persistence. The paper describes “real citations deployed to support claims the cited references do not actually make” as an open challenge. ARS v3.7.1 added trust-chain frontmatter for source provenance; v3.7.3 added locator infrastructure (three-layer citation anchors) for future claim-level audits and surfaces advisory risk signals at cite time (ARS labels the claim-faithfulness gap internally as “L3”; this is ARS terminology, not the paper’s). v3.7.x is motivated by Zhao et al.’s corpus-scale findings; corpus-scale evaluation of ARS itself remains future work.
v3.8 closes the second half of the L3 gap. v3.7.3 made every citation carry a locator anchor; v3.8 adds an opt-in audit pass (
ARS_CLAIM_AUDIT=1) that fetches the cited source against each anchor and judges whether the claim is actually supported. Five new HIGH-WARN classes (claim-not-supported, negative-constraint-violation, fabricated-reference, anchorless, constraint-violation-uncited) gate-refuse output through the formatter terminal hard gate. A calibration runner ships with a 25-tuple synthetic gold set and FNR<0.15 + FPR<0.10 acceptance thresholds. Its shipped test drives the runner with a stub judge that returns the gold labels, so it checks the tooling, not a live judge; no live-judge calibration result is recorded yet, and the ramp-on plan waits for one (v3.8 spec §5).Ren et al. (2026, Self-Improvements in Modern Agentic Systems: A Survey) supplies a third, survey-level anchor. Its scientific-discovery synthesis (§7.4) concludes that discovery agents cannot easily verify novelty, correctness, or reproducibility on their own and may exploit weak proxies instead, must manage evidence across heterogeneous tools and literature, and raise governance issues — “scientific writing can also amplify misinformation when the evidence is weak.” Its generation-loop chapters (§5.1–§5.2) list human auditing and retained human anchors among the practical safeguards for self-generated evaluation loops, and its historical chapter (§2.2) records the oldest form of the same lesson: the practical success of Lenat’s EURISKO depended heavily on the user serving as the external evaluation signal, pruning unproductive heuristic drift — a limitation the survey notes persists in modern agentic systems. ARS cites the survey as design rationale for its human-in-the-loop stance, not as empirical proof that human-in-the-loop pipelines outperform autonomous ones; the survey’s actionable deltas for ARS are tracked in #539–#541 and #547–#550.
Gartenberg et al. (2026, Organization Science 37(3):795-812, “More versus better”) supplies a fourth anchor, and the first from the journal side. The Organization Science AI Task Force scored every first submission (6,957) and every text-format review (10,389) the journal received between January 2021 and February 2026 with a commercial AI-writing classifier and standard readability indices. Manuscripts scored as heavily AI-written read worse on those indices and were desk-rejected more often; reviews scored as more AI-written leaned toward theory and away from data; and the editors conclude that current AI tools, amplified by publish-or-perish incentives, “appear to be pushing the system toward an equilibrium of more rather than better research.” Their §5 contrasts “cognitive surrender” (Shaw & Nave, 2026, as cited there) with human-first use and asks authors to disclose how a manuscript was produced. The evidence is observational, aggregate, and from one journal, and the classifier is a proprietary instrument. ARS cites the editorial as design rationale for recording volume as a non-goal (see
POSITIONING.md) and for the Collaboration Depth Observer and the claim-strength ladder, not as evidence about ARS output; the actionable deltas are tracked in #829–#833.Wang, Li et al. (2026-09, The Emerging AI Paper-Review Arms Race: Adversarial Co-Evolution in Scholarly Publishing, a survey of 230 sources) supplies a fifth anchor, and the first that treats research production and peer review as one coupled system. Its evaluative-authority ladder (§4.1) runs from author-facing feedback through reviewer assistance and official AI reviews to scoring and decision support, with the survey’s point that capability at one rung does not justify use at the next; ARS’s simulated panel sits on the lowest rung by design (see
POSITIONING.md). Two of its findings shape the reviewer roadmap. First, as the survey summarizes Dycke & Gurevych (2026, §4.5), 391 edits that break a paper’s scientific support relations produced no statistically significant difference in the tested automated reviewers’ aspects, sentiment, or scores compared with 540 soundness-neutral controls, while presentation-only rewrites with the science held fixed moved AI-review scores (§5.2); the survey’s §9.2 conclusion is that a static evaluation can overstate an AI reviewer’s reliability once authors can observe and adapt to it. ARS tracks the corresponding Round-1 paired controls in #871 and the author-identity-cue controls (§7.2) in #872; both are measurements, not new mechanisms. Second, its §9.1 cites Brodeur et al. (2026, PNAS 123(22):e2524747123), a randomized study in which 288 researchers in 103 teams reproduced published quantitative social-science results under three conditions: human-only, AI-assisted (ChatGPT as a collaborative tool), and AI-led (ChatGPT with minimal human oversight). Human-only and AI-assisted teams reproduced 94% and 91%, AI-led teams 37%, and the AI-assisted teams detected fewer major coding errors than the human-only teams. In that study, then, AI assistance did not verify better than humans alone and AI-led verification did much worse; ARS reads this as a reason to keep verification human-led at every checkpoint, not as evidence that its own checkpoints or integrity gates are effective. The survey is a synthesis rather than an experiment, its structured search stops at 2026-07-01 and the later targeted update did not rerun every query (§10), its deployment evidence is concentrated in a small number of AI/CS conferences, OpenReview-based settings, and selected journals, and its “arms race” framing is a lens, not a finding; ARS cites it as design rationale, not as evidence about ARS output.King & Worthington (2026-10, AI Article Reviews Dominate Human Peer Reviews at Their Best: Evidence and Policy Choices) supplies a sixth anchor, and the first that compares AI and human reviews of the same manuscripts head to head. On 124 manuscripts and 134 paid expert reviews from a pre-submission review service whose authors rated those reviews highly, Claude Opus 4.8 wrote one review per manuscript in each of two conditions, at maximum reasoning effort. A GPT-5.5 judge preferred the AI review in every decided pair, each pair judged in both presentation orders, and three former journal editors preferred it in 26 of 30 blinded judgements. In a replication that used both model families as reviewers and judges, the AI review was preferred in 404 of 416 comparisons (97.1%) by the Opus judge and in 392 of 416 (94.2%) by the GPT judge. Two results bear on ARS’s reviewer. In the additional-sources area (alternative data, theory, or literature), the AI review won 62% of decided pairs without web retrieval (n=85) and 100% with it (n=99), and ARS’s domain reviewer recommends literature without retrieving or verifying it (#1001). The AI reviews were also not error-free: in the no-tools condition, 5.5% of AI claim assessments were judged contradicted by the manuscript, against 15.9% for the human reviews, and 37.1% of AI reviews had at least one such claim; ARS does not check its panel’s claims against the manuscript (#1002). The paper’s policy section describes authors iterating with a published AI review prompt and answering it in a letter, close to the use ARS is designed for, and warns that authors who revise for a published prompt may end up optimizing for it, leaving biases unrelated to the quality of the science. Its limits frame how ARS reads it: one review service, one judge model in the main analysis, editors who judged from the reviews alone, no measure of whether revised papers improved, and results that, in the authors’ words, “do not speak to” how editors should make publication decisions. That last boundary matches where
POSITIONING.mdplaces ARS’s panel. This paper and the Dycke & Gurevych result above address different questions: review preference and factual grounding here, sensitivity to changes in a manuscript’s soundness there, so neither result answers the other. ARS cites the paper as design rationale, not as evidence about ARS output.v3.3 was inspired by PaperOrchestra (Song, Song, Pfister & Yoon, 2026, Google): Semantic Scholar API verification, anti-leakage protocol, VLM figure verification, and revision-trajectory tracking. ARS now implements that last idea through categorical, evidence-anchored criterion trajectories rather than score deltas.
Architecture & pipeline
👉 docs/ARCHITECTURE.md — the full pipeline view: flow diagram, stage-by-stage matrix, data-access flow, skill dependency graph, quality gates, and mode list.
The architecture doc supersedes the sprawling pipeline description that used to live here. Everything about what runs in which stage now lives in one place.
Quick install
Prerequisites
ANTHROPIC_API_KEYexported, or set on firstclauderunPlugin install (v3.7.0+, recommended):
Verify it works: run
/ars-planand describe a paper you’re working on — ARS will start a Socratic dialogue to map out chapter structure. For a single-shot test instead, try/ars-lit-review "your topic".👉 docs/SETUP.md — full guide: install Claude Code, set up API keys, optional Pandoc/tectonic for DOCX/PDF, cross-model verification (
ARS_CROSS_MODEL), and six installation methods (Plugin for Claude Code / claude.ai / Claude Desktop, project skills, global skills, claude.ai Project, repo-cloned, Claude Science import).👉 docs/DATA_FLOWS.md — what leaves your machine (bibliographic resolvers, optional consent-gated cross-model calls, the plugin update check), what is cached locally, for how long, and how to turn each path off.
👉 docs/RISK_REGISTER.md — the standing risks the suite knows about, which existing controls address each one, the evidence status behind those controls, and what remains open.
Using Claude Science? The five skills import directly: Skills → Import from GitHub, paste
https://github.com/Imbad0202/academic-research-skills, Preview, then Import (requires v3.14.0+ of this repo — the importer reads the explicit skill paths in the marketplace manifest). Imports are point-in-time snapshots: re-import after ARS updates. Imported skills carry the ARS methodology (research / writing / review protocols); Claude Code-specific machinery — slash commands, hooks, subagent orchestration — does not transfer. See docs/SETUP.md Method 5 for details.Using Pi? Install the in-tree, community-maintained wrapper with
pi install git:github.com/Imbad0202/academic-research-skills. It keeps the original ARS content authoritative and documents Pi-specific orchestration and hook limitations. Seepi/README.md.Using Codex CLI? Install the sibling distribution instead:
Imbad0202/academic-research-skills-codex— same workflow content, Codex-native packaging as a single$academic-research-suiteskill withars-*aliases.Third-party platforms and integrations that wrap or host ARS are listed in THIRD_PARTY.md — community-submitted and not reviewed or endorsed by the maintainer.
Governance: who decides, what cross-model review does and does not provide, and the project’s end-of-life posture are stated in GOVERNANCE.md; security reporting and triage in SECURITY.md.
Performance & cost
👉 docs/PERFORMANCE.md — per-mode token budgets, full-pipeline estimate (about US$3–7 for a 15k-word paper at 2026-09 list prices, before cache discounts), and recommended Claude Code settings (Auto mode; Agent Team optional).
Guides & articles
Features at a glance
NOT_CALIBRATED; full calibration produces a bounded candidate profile, while live-profile application is not yet wired.repro_lock, optional cross-model integrity verification, mid-conversation reinforcement, and narrative criterion-by-criterion regression checks (the typed trajectory carrier is deferred).literature_corpus[]handoff toacademic-paper. AI decisions are decision support; the review team verifies them.data_access_level(raw/redacted/verified_only); enforced byscripts/check_data_access_level.py. Pattern adapted from Anthropic’s automated-w2s-researcher (2026). Seeshared/ground_truth_isolation_pattern.md.task_type(open-endedoroutcome-gradable). All current ARS skills areopen-ended.shared/benchmark_report_pattern.md.repro_locksub-block on Material Passport. Configuration documentation, not replay guarantee — LLM outputs are not byte-reproducible. Seeshared/artifact_reproducibility_pattern.md.ARS_MODEL_TIERINGswitch with two directions:economy(execution-type agents dispatch one tier below the session model, floor Opus-class) andquality-boost(judgment-type agents at integrity gates and final review step up to the frontier tier). Default unset = byte-equivalent to pre-#517 behavior. Seeshared/model_tiering.md.[CROSS-MODEL-HANDOFF v1]envelope with a normative Python grammar (scripts/cross_model_handoff.py) instead of prose-only enforcement, pinning agreement/divergence/malformed-result routing across all three checkpoint owners. Seeshared/cross_model_verification.md§”Cross-model handoff envelope”.experiment_provenance[]on the Material Passport records experiments the scholar ran externally (ARS never runs experiments), and manuscript claims join to them viaclaim_intent_manifest.planned_experiment_ids[]. The integrity gate (Stage 2.5/4.5) audits each experiment-backed claim against declared provenance —ALIGNED/OVERSTATED/NOT_SUPPORTED_BY_PROVENANCE/PROVENANCE_INSUFFICIENT— without judging whether the experiment itself was correct. A fail-closedexperiment_intake_declarationmakes “did you run experiments?” an explicit decision the scholar answers after Stage 1, or on entry when a run starts later (even literature-only runs declareno_experiments_declared). Seeshared/handoff_schemas.md§”Experiment Provenance Intake (#260)”.Integrity and verification boundary: ARS checks the manuscript and the reported process—including citation existence, claim–source alignment, reported methodology, declared experiment–result alignment, figure/table fidelity, and reporting/process/package conformance. Some checks are sampled or LLM-mediated. ARS does not establish that procedures were actually performed, raw data are authentic, or results reproduce; a consistently reported fabrication can pass these checks. See POSITIONING.md § Integrity checks and the empirical-work boundary.
Showcase: real pipeline output
See the complete artifacts from a real pipeline run, including peer review reports, integrity verification reports, and the final paper:
Browse all pipeline artifacts →
Companion: Experiment Agent
If your research involves running experiments (code or human studies) before writing, the Experiment Agent skill fills the gap between ARS Stage 1 (RESEARCH) and Stage 2 (WRITE).
What it does: executes code experiments (Python, R, etc.) with real-time monitoring, manages human study protocols with IRB ethics checklist, interprets statistics with 11-type fallacy detection, and verifies reproducibility.
How to use together: pause the ARS pipeline after Stage 1, run experiments in a separate experiment-agent session, then bring the results (with Material Passport) back to ARS Stage 2. ARS requires zero modification. See the experiment-agent README for setup instructions.
Stage 1 intake declaration (#260, #925): at the checkpoint after Stage 1, or on entry when a run starts after Stage 1, ARS asks you whether the paper reports experiments or data analyses you ran yourself, and records your answer, in your words, in a fail-closed
experiment_intake_declarationon the Material Passport. ARS does not infer the answer from the manuscript. If you ran experiments externally, the scholar enters oneexperiment_provenance[]entry per experiment (experiment_id, nestedrepro_lock,planned_vs_executed[],negative_results[],known_limitations[]) and the declaration is set toexperiments_declared; if not, it is set tono_experiments_declared. The declaration is required on every post-#260 passport — a run that touches no experiments still declaresno_experiments_declared, so the integrity gate can never be silently bypassed by a forgotten provenance block. Theexperiment_ids are frozen at this intake point, which closes before the first Stage 2 writer is dispatched (or before the first integrity gate when no Stage 2 lies ahead), so you can pause after Stage 1, run the experiments, and record them when you return; the writers later reference them viaplanned_experiment_ids[].Teaching-side companion: Teaching Skills applies the ARS architecture (skill ensembles, shared contracts, staged gates, a Course Passport) to the teaching side of academic life — course design → lessons → assessment → delivery → reflection; its
sotlmode hands classroom-inquiry projects off to ARS deep-research / academic-paper for the publication phase.Usage
Quick Start
Individual Skills
Deep Research (8 modes)
Academic Paper (11 modes)
Academic Paper Reviewer (6 modes)
Academic Pipeline (Orchestrator)
SR-Screener (8 modes)
Supported Languages
Supported Citation Formats
Supported Paper Structures
Skill Details
Per-agent responsibilities and per-stage artifacts now live in
docs/ARCHITECTURE.md. Version numbers are anchored here so release metadata stays in one place.Deep Research (v2.12.1)
13-agent research team. Modes: full, quick, review, lit-review, three-way-scan, fact-check, socratic, systematic-review. Full agent roster and artifacts: see ARCHITECTURE.md §3.
Academic Paper (v3.3.1)
12-agent paper writing pipeline. Modes: full, plan, outline-only, revision, revision-coach, abstract-only, lit-review, format-convert, citation-check, disclosure, rebuttal-audit. Output: MD + DOCX (via Pandoc when available) + LaTeX (APA 7.0
apa7class / IEEE / Chicago) → PDF via tectonic. Full agent roster and per-phase responsibilities: see ARCHITECTURE.md §3.Academic Paper Reviewer (v1.11.1)
7-agent multi-perspective review with criterion-bound narrative judgements. Modes: full, re-review, quick, methodology-focus, guided, calibration. Current live reviews and Schema 6 packages remain
NOT_CALIBRATED; full calibration can produce a bounded candidate profile, but application to a live review is not wired. No numerical total is mapped to Accept, Minor Revision, Major Revision, or Reject. First-round review panel vs. contract-governed re-review dispatch boundary: see ARCHITECTURE.md §3 Stage 3 / Stage 3’.Academic Pipeline (v3.24.1)
10-stage orchestrator with integrity verification, two-stage review, Socratic coaching, and collaboration evaluation. Pipeline rules (protocol the agents follow, not runtime guarantees): every stage requires user confirmation checkpoint; integrity verification (Stage 2.5 + 4.5) is MANDATORY with no unrecorded bypass (every override requires user reasoning recorded for Stage 6); R&R Traceability Matrix (Schema 11) maps each reviewer concern to the author’s revision claim and records whether the re-review verified it. v3.4 added the Compliance Agent (PRISMA-trAIce + RAISE) at Stage 2.5 / 4.5. v3.5 adds the Collaboration Depth Observer (
collaboration_depth_agent, advisory only — never blocks) at every FULL/SLIM checkpoint and at pipeline completion. MANDATORY integrity gates (2.5 / 4.5) explicitly skip the observer so compliance checks are not diluted. Based on Wang & Zhang (2026), IJETHE 23:11. Stage-by-stage matrix with agents, artifacts, and gates: see ARCHITECTURE.md §3.SR-Screener (v1.0.0)
4-agent study screening between
deep-research(question, protocol, search) andacademic-paper(writing the review). Modes: protocol, quick, pilot, ta-screen, ft-screen, adjudicate, audit, report. Two blinded reviewer subagents (Read and Grep only) screen every record against the user-confirmed protocol, a third reviewer adjudicates advance-vs-exclude conflicts, and standard-library Python scripts parse RIS / PubMed .nbib / Web of Science / CSV exports, de-duplicate, batch, merge, and build the screening log, RIS groups, PRISMA 2020 counts, a methods draft with[TO COMPLETE]slots, and aliterature_corpus[]file. Rules the agents follow (not runtime guarantees): no record is screened before the user confirms the protocol, no failed call becomes a default “exclude”, and the review team verifies the decisions before the numbers are reported. Seesr-screener/SKILL.md.v3.0 Optimizations: What We Discovered About AI’s Structural Limits
What happened
While using ARS to write a reflection article about AI in higher education, I ran into three structural problems that no amount of prompt engineering could fix:
Frame-lock: I asked the AI to run a devil’s advocate debate against its own thesis. It did — four rounds, each more refined than the last. But every round stayed inside the frame I’d set. The DA attacked arguments, never premises. It never asked “are we even discussing the right question?” This is the same pattern that caused the 31% citation error rate in v2.7’s stress test: the verifying AI and the generating AI share the same cognitive frame.
Sycophancy under pushback: Every time I challenged the DA’s attacks, it conceded too quickly. It retracted findings faster than it launched them. The model’s training rewards conversational harmony — so “the user pushed back” was treated as evidence that the attack was wrong, when often it just meant the user was persistent.
Intent misdetection: The Socratic Mentor kept trying to converge and produce deliverables (“Want me to write this up?”) when I was still exploring. It couldn’t distinguish “the user wants a deep philosophical discussion” from “the user wants an RQ brief.” Both look like engagement, but they need opposite AI behaviors.
What we changed (v3.0)
Devil’s Advocate — Concession Threshold Protocol (
deep-research+academic-paper-reviewer)Socratic Mentor — Intent Detection Layer (
deep-research)Socratic Mentor — Dialogue Health Indicator (
deep-research)Why this matters
These optimizations don’t solve AI’s structural limits — they make the limits visible and manageable. The DA will still eventually concede if pushed hard enough. The Socratic Mentor will still have some convergence bias. But now there are explicit checkpoints that slow down the sycophancy, force the DA to justify concessions, and prevent the Mentor from wrapping up before the user is ready.
The deeper lesson: AI literacy isn’t about learning to use AI as a tool, following ethics rules, or fearing AI risks. It’s about engaging AI deeply enough to discover its structural limits yourself — and your own thinking limits in the process.
License
This work is licensed under CC-BY-NC 4.0.
You are free to:
Under the following terms:
Attribution format:
Contributors
Cheng-I Wu (吳政宜) — Author and maintainer
aspi6246 — Contributor. The v3.1 optimization was inspired by patterns from Claude-Code-Skills-for-Academics: read-only constraint pattern, anti-pattern codification as first-class design, cognitive framework approach (teaching “how to think” not just procedures), and lean skill size philosophy.
mchesbro1 — Contributor. Originally proposed and drafted the IS Basket of 8 journals for
academic-paper-reviewer/references/top_journals_by_field.md(Issue #5).cloudenochcsis — Contributor. Extended the IS section from the Basket of 8 to the full Senior Scholars’ Basket of 11 — adding Decision Support Systems, Information & Management, and Information and Organization (Issue #7, PR #8). Sourced from the AIS Senior Scholars’ List of Premier Journals.
eltociear (Ikko Eltociear Ashimine) — Contributor. Translated the Japanese README (
README.ja-JP.md) (PR #161).xpfo-go (xpfo) — Contributor. Translated the Simplified Chinese README (
README.zh-CN.md) (PR #181).devCharlotte — Contributor. Translated the Korean README (
README.ko-KR.md) (PR #469).Yaobin29 — Contributor. Proposed reviewer-response tooling in PR #433; the
deep-research three-way-scanmode and theacademic-paper rebuttal-auditmode (rescued from the PR’sauditconcept) were integrated from that contribution in v3.12.1.ktao732084-arch — Contributor. Expanded the
academic-paperdisclosure system with nine medical-publishing policy targets, target-specific required-fact intake, and fail-closed standalone rendering (Issue #596, PR #599); expanded the EQUATOR clinical-reporting reference with condensed CARE, STARD and TRIPOD+AI guidance plus a fail-closed study-design routing sequence (Issue #594, PR #601); and designed and contributed the standalone Chinese-literature resolver, API protocol, and synthetic transport-fixture suite (Issue #595, PR #600).didacrios — Contributor. Translated the Spanish README (
README.es-ES.md).laqueiroz (Laís Queiróz) — Contributor. Translated the Brazilian Portuguese README (
README.pt-BR.md).Changelog
Only the three most recent releases are summarized here. The full release history, including the one-paragraph summaries that used to live on this page, is in CHANGELOG.md.
v3.24.1 (2026-11-02) — Plugin installs from a claude.ai account marketplace, reviewer card confirmation, and a Brazilian Portuguese README
v3.24.0 (2026-10-27) — Advisory checks of the panel’s suggested references and findings, a one-process guard launcher, and integrity-rule repairs
v3.23.2 (2026-10-24) — Integrity checks read only the cited version, Stage 2.5 always runs, and adapter, announce, and Windows repairs