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MCP server for reproducible, grounded, citation-verified research — sub-task pipelines, provenance sidecars, publication-grade visualisation, grounded reasoning, and self-tested dashboards.

Project description

Research OS — grounded · cited · auditable

Research OS

PyPI Python MIT tests

Talk to your AI in plain English. Get publication-grade research back.
No hallucinated citations. No fabricated numbers. Every figure traceable to the script that made it.

Quick start · How to ask · What you can ask for · Worked examples · Full guide · FAQ


30-second version

pip install research-os
mkdir thesis-chapter-3 && cd thesis-chapter-3
research-os init .                # scaffold THIS folder, ~20 seconds

Open the folder in Claude Code (or Cursor, or any MCP-capable AI IDE) and talk:

You: I have a CSV of 2,400 patients at ~/data/cohort.csv. I want to know whether the new drug lowers 30-day readmission, controlling for age and comorbidity. Hypothesis: it does, and the effect is bigger for older patients.

AI: Captures your question, domain, and both hypotheses; profiles the CSV; surfaces current literature; proposes a baseline EDA + a logistic regression with an age interaction; asks you to confirm before running anything.

From there: run the baseline EDAfit the modeldraft the results sectionis this ready to submit?. Every figure lands with a caption and the script that made it; every citation is verified; every number in the draft traces back to a real file on disk.

That's the whole idea. The rest of this page explains why it matters.

Three things to do next

  1. See a real project, start to finish. SCENARIOS.md walks two complete projects — a quick one, and a deep PI-level program that shows how you actually interact with Research OS turn by turn (what the researcher types, what they see in their folder, and what the AI does at each step). This is the fastest way to understand how to work with it.
  2. Set it up the robust way, not just the fast way. A few minutes of proper onboarding — the AI scans your inputs, frames the question, grounds in real literature, and wires exactly one IDE — pays off across the whole project. The setup prompt is one copy-paste block that walks your AI through it in order.
  3. Make it self-improving. Pair Research OS with the Hermes agent layer for memory across projects, reusable skills, and autonomous long runs.

The problem it solves

AI coding assistants are fast, and they will cheerfully lie to you. Not maliciously — they pattern-match. Ask for a literature review and you'll get plausible citations to papers that don't exist. Ask for a results section and you'll get confident p-values that were never computed. Ask a follow-up next week and last week's decisions are gone.

For throwaway code, fine. For research that ends up in a thesis, a grant, or a paper, those failures are career-damaging — and they're invisible until a reviewer (or a retraction) finds them.

Research OS is an MCP server that sits between your AI and your project and refuses to let those four things happen:

The failure mode What Research OS does instead
Invented citations Every reference is checked against Crossref / Semantic Scholar / PubMed / arXiv before it lands in a draft. Can't verify it? It's dropped, not quietly kept.
Invented numbers Every quantitative claim in your write-up must point at a real file in workspace/. If a number isn't grounded in an artifact, synthesis blocks.
400-line unreviewable scripts Work is split into small, content-hash-cached steps. Change one input; only the affected parts re-run. You can actually read what ran.
Lost context Decisions, hypotheses, dead-ends, and draft revisions are written down as you go. Tomorrow's chat resumes exactly where today's ended.

It works with the AI tools you already use — Claude Code, Cursor, Claude Desktop, Antigravity, VS Code, Windsurf, OpenCode, Continue, Aider. One install, one wizard, and the assistant you already trust does work that's traceable, grounded, and reproducible — the rigor you'd need before you submit, not a guarantee a reviewer will accept it.


What working with it actually feels like

No commands to memorize, no DSL to learn. You describe what you want; the AI loads the right protocol and walks it.

Starting — you don't even need to touch a file:

"Here's my project: does sleep duration predict exam scores in this dataset? Data's at ~/study/students.csv. I think more sleep helps, more so for younger students."

The AI records your question + hypotheses, profiles the data, surfaces relevant prior work, and asks you to confirm before any analysis starts. (Prefer to drop files in inputs/ first? That works too — same result.)

Doing the work:

"run a baseline EDA"

You get workspace/01_baseline_eda/ — readable scripts, figures with real captions, tables, and a written conclusion that links back to your hypotheses. Numbered, cached, re-runnable.

"compare logistic regression against gradient boosting"

A real head-to-head: same split, same metrics, paired significance test, and a stated winner — not a hand-wavy "both have tradeoffs."

Writing it up:

"draft the discussion"

A discussion that cites your results. Every citation verified, every figure and number traceable.

"make me a poster for the lab meeting Thursday"

The AI assembles the poster's structure — which results to feature, the narrative arc, what each panel is for — grounded in your real findings, for you to render. Research OS gives you structure tailored to your audience, not a fixed template.

Shipping it:

"is this ready to submit?"

A GREEN / YELLOW / RED verdict with a punch list — every check a journal will run, before they run it.

"dockerize this step so it runs on the cluster"

The AI pins that step's exact packages and writes a step-scoped Dockerfile in the step's own folder — the scripts, data, and pinned environment travel together, so the one step rebuilds and runs anywhere, not just the whole project.

"going to lunch, pick up tomorrow"

State, plan, hypotheses, dead-ends, and drafts all persist. Tomorrow's session opens exactly where you left off.

→ Full catalogue of what to say: USE_CASES.md · How to word a request for a specific outcome (and what happens behind the scenes): PROMPTING.md · Two worked projects end to end — a basic one and a deep PI-level program touching every capability: SCENARIOS.md


Three ways to work (set once, at init)

The wizard's first question — "What are you building?" — picks a workspace mode that reshapes the scaffold and how the AI behaves:

  • analysis (default) — data → results → paper. Numbered experiment steps; "done" means grounded figures + conclusions.
  • tool_build — you're building software (a CLI, a library, a pipeline). Research OS governs the build from above (spec → implement → test → benchmark) while the tool lives in its own git repo; "done" means tests + build + eval pass, not figures. → docs/TOOL_BUILDER.md
  • exploration — scratch-first. Poke at the data with light gates; promote a probe to a real step only when it earns it.

Three more modes cover bigger shapes — hybrid (build a tool and use it on data in one project), notebook (Jupyter is the unit of work), and multi_study (a program of sub-studies sharing a codebook). Set the mode at init (research-os init --workspace-mode <mode>) or change it later in inputs/researcher_config.yaml.


What you actually see on disk

A clean three-folder workspace. You only ever touch one of them.

thesis-chapter-3/
│
├── inputs/                 ← YOU own this (the AI reads, never overwrites)
│   ├── raw_data/             your data — CSV, Parquet, FASTQ, NIfTI, …
│   ├── literature/           PDFs of papers the project draws on
│   ├── context/              PI emails, lab notes, prior drafts
│   └── researcher_config.yaml  one optional file that tunes AI behavior
│
├── workspace/              ← the AI works here (you read; it writes)
│   ├── 01_baseline_eda/      one analysis step per numbered folder
│   │   ├── scripts/            code you can read + re-run
│   │   ├── outputs/            figures (with captions), tables, reports
│   │   └── conclusions.md      findings + interpretation, tied to hypotheses
│   ├── methods.md            project-wide methods narrative (append-only)
│   ├── analysis.md           decision log + dead-ends + rationale
│   ├── citations.md          verified citations only
│   └── logs/                 every audit pass + every gate override
│
└── synthesis/              ← deliverables land here (only when you ask)
    ├── deliverables/               structured outlines for paper / poster / slides
    ├── dashboard/                  a public-facing dashboard's structure
    └── figures/                    curated focal figures + captions

One principle holds it together: you own inputs/, the AI owns the rest, and nothing exists until you ask for it. A fresh project isn't pre-cluttered with empty folders — workspace/01_* appears the first time you run a step. And Research OS gives you structure, not design: deliverables are content-grounded outlines tailored to your audience, for you and your AI to render — not a fixed template.

→ Deeper tour: RESEARCHER_GUIDE.md · Exact layout per mode: PROJECT_LAYOUT.md


Install & run

# 1. Install once — the same binary serves every project you scaffold.
pip install research-os

# 2. Scaffold a project (arrow-key wizard).
mkdir my-project && cd my-project
research-os init

# 3. (Optional) confirm everything's healthy.
research-os doctor

# 4. Open the folder in your AI IDE and talk. The MCP server auto-launches.
#    > here's my project: I want to know if X drives Y; data's at <path>
#    > what should I do next?
#    > draft the results section
#    > is this ready to submit?

The full experience ships in the base install — no extras to remember. A handful of features that need their own system runtime (the enforcement daemon, R, Julia) are opt-in; see SETUP.md.

Prefer to let your AI set it up? Use the one setup prompt

There's a single, copy-paste setup prompt that walks your AI through the whole thing — install, wire only your IDE (not all of them), start the daemon, test that it actually works, and remind you to restart (the one step people miss) — then onboard your project before any analysis. It's a fill-in-the-gap template: you only have to provide a project name, your goal, and a free-text "context block" where you dump your thoughts; leave the rest blank and the AI asks or picks sensible defaults.

Copy it from docs/SETUP_PROMPT.md and paste it to your AI with the project folder open.

Why the restart matters: an IDE/agent loads its MCP servers when the session starts, so the Research OS tools only appear after you reopen the project. Pointing your AI at Research OS without this almost always ends with it improvising instead of using the real tools — which is exactly why the prompt makes the AI stop, wait for your restart, and self-test before doing anything.

→ Full walkthrough: START.md · Per-IDE wiring: SETUP.md · CLI reference: CLI.md


Two layers, and why they matter

1. The reasoning core (always on). The MCP server every command above talks to. Three tool namespaces — sys_* (workspace / files / state), tool_* (research work), mem_* (append-only memory) — plus a deep library of protocols the AI routes to via tool_route. The core is reactive: it runs in your IDE, responds to each prompt, and never blocks. Most projects need nothing more.

2. The enforcement daemon (optional). For big or long-lived projects, a local daemon adds what a reactive server can't:

  • Background runs with a durable journal, provenance, and lineage — long jobs don't freeze the chat.
  • Freshness gates — it won't let the AI ship a result built on data that changed underneath it.
  • Hard, human-approved gates — the AI can't self-approve past a real checkpoint.
  • A resource budget the machine actually enforces, and completion notifications.

The core behaves identically with or without the daemon — it only ever adds enforcement, never changes the tools. → DAEMON.md · ARCHITECTURE.md


The strongest pairing: Research OS + a self-improving agent

Research OS is the rigor substrate — it governs how to reason and what to verify. The AI on top is the brain. The pairing is strongest when that AI layer can learn your work and carry skills across sessions, like Hermes Agent. Then three layers compose:

  • Research OS — research done right: protocols, gates, provenance, the numbered-step structure.
  • Skills — your field's how-to. Research OS actively pulls the skills a project needs from three sources and loads them before you start, instead of relying on the model's memory:
    1. Hermes skills you've built or installed (~/.hermes/skills/),
    2. the K-Dense scientific-agent-skills library (community MIT science skills — install with research-os skills add-science-pack),
    3. any native Agent Skills in the open SKILL.md standard. sys_boot.recommended_skills tells the AI which ones match this project on the first turn.
  • Self-improvement — Hermes learns your way over time. Lessons distilled in one project are promoted into loadable skill cards that surface in the next.
research-os hermes add          # wire Research OS into Hermes
research-os skills add-science-pack   # install the K-Dense science skill library
research-os skills list-science       # see what's available

The guidance/agent_setup protocol walks the whole setup, and the setup prompt's step 9 has the AI pull the right skills up front. It works with any AI — Claude Code, Cursor, a bare API — but Hermes is the closest fit because the skill + memory + autonomous-run layer is exactly what a long research program needs.


Why trust the output

The worry The guarantee
AI invented a citation Verified against four databases; unverifiable ones dropped.
AI invented a number Every claim traces to a real workspace/ file or synthesis blocks.
Script too big to review Atomic, content-hash-cached sub-steps; edit one, re-run only what's affected.
Context lost between sessions Decisions / hypotheses / dead-ends / drafts persist on disk.
Figure drifts from its caption Each figure ships with caption + plain-English summary + provenance sidecar (script, seed, library versions).
Pre-registered plan silently changed The analysis plan is content-hashed; every deviation surfaces at synthesis.
Negative results vanish First-class workflow for refuted / underpowered / abandoned findings.
Pre-submission anxiety A final check runs every gate a journal will — verdict + punch list.

→ Full release history: CHANGELOG.md


Documentation

If you're… Read this
New here docs/HOW_IT_WORKS.md — how real projects unfold + why your results hold up (provenance, accuracy, organization) · then docs/START.md — install + first project
Setting up with your AI docs/SETUP_PROMPT.md — one copy-paste, fill-in-the-gap prompt that drives your AI through the whole setup + onboarding
Looking for an example docs/SCENARIOS.md — two worked projects (basic + deep PI-level) · docs/USE_CASES.md — what to say for what you want
Wording a request docs/PROMPTING.md — how to phrase prompts to get a specific outcome (dockerize a step, pull papers, sample data, a no-leak dashboard) + what happens behind the scenes
Going deep docs/RESEARCHER_GUIDE.md — the full workflow guide
Wiring an IDE docs/SETUP.md — Claude Code, Cursor, VS Code, etc.
Stuck docs/FAQ.md — common questions
Building a tool, not analysing data docs/TOOL_BUILDER.md — tool_build mode end to end
Curious about a protocol docs/PROTOCOLS.md — every workflow with triggers + quality bars
Looking up a tool docs/TOOLS.md — every MCP tool with examples
Understanding how it's built docs/ARCHITECTURE.md — the core, the daemon, the seam between them
Running long / enforced jobs docs/DAEMON.md — the optional enforcement daemon
Sharing a finished project docs/SHARING.md — share-safe zip + GitHub paths
Contributing a protocol docs/PROTOCOL_DOCTRINE.md — the scaffold-not-script principle
Driving the AI side docs/AI_GUIDE.md — what the AI itself reads

Doc index: docs/README.md


Tune how the AI behaves

One optional file — inputs/researcher_config.yaml — controls everything. Every field has a sensible default. The two that matter most:

interaction:
  quality_gate_policy: enforce          # enforce | allow_override | warn_only
  ambiguity_posture: ask_when_uncertain # vs take_best_default

You can change these mid-session just by telling the AI ("switch to autopilot", "stop asking, use your best judgment").

→ Full reference: RESEARCHER_GUIDE.md § config


Contributing

Issues and PRs welcome.


License

MIT · No telemetry · Research OS never touches your LLM provider keys (your AI IDE owns model access).

If you use Research OS in published work, citation metadata lives in CITATION.cff.

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