research-with-sources — Claude Code skill: research that cites sources
A skill that walks the agent through evidence-driven research: every source is preserved verbatim, findings land in a draft article under research/, and each claim gets a citation.
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a claude-codeWhat research-with-sources does
The skill enforces a fixed order of operations. Scan the content directory for prior work, agree on a research rubric, then start fetching. Each source is ingested the moment it is fetched, one at a time, never in a trailing batch. That is what makes the run crash-safe: an ingested source survives a dead session, a fetched-but-unwritten one does not.
The article itself is built incrementally. The skeleton appears early and findings are edited into it as each source is read, so a crash after five of eight sources leaves five sections in the knowledge base. Default output is a provisional article with status: draft and an inline sources: list in the frontmatter. A conversational answer with no document only happens when you ask for one explicitly.
It runs on any agent host with the OpenKnowledge MCP server configured, and installs project-local via ok seed --pack knowledge-base. Research defaults to external framing: web pages, open-source repos, papers, official APIs. Your own codebase stays out of the article unless you ask for it, since mixing the two turns factual synthesis into opinion about your organization. Promoting findings to canonical knowledge is a separate job — the sibling consolidate-notes skill handles that once a decision lands.
What it helps with
- gather sources on a topic without losing them to a crash
- compare options with citations instead of vibes
- extend an existing research doc with new findings
- record trade-offs and open questions as of today
- keep third-party facts separate from your own codebase
Example prompts for the agent
- research how open-source job queues handle retries and write a draft under research/
- compare three PDF parsing libraries, capture every source verbatim
- update research/vector-db.md with a section on hybrid search
How to install research-with-sources
1Skills CLI (Vercel)
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a claude-code2Manually: put the files in place
~/.claude/skills/research-with-sources/SKILL.mdCopy the whole skill folder; for one project use .claude/skills/research-with-sources/
1Skills CLI (Vercel)
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a codex2Manually: put the files in place
.agents/skills/research-with-sources/SKILL.mdFor all projects use ~/.agents/skills/
1Skills CLI (Vercel)
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a cursor2Manually: put the files in place
.cursor/skills/research-with-sources/SKILL.mdCursor also reads .agents/skills/ and .claude/skills/
1GitHub CLI
gh skill install inkeep/open-knowledge-skills research-with-sources2Manually: put the files in place
.github/skills/research-with-sources/SKILL.md1Skills CLI (Vercel)
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a gemini-cli2Platform CLI
gemini skills install https://github.com/inkeep/open-knowledge-skills --path skills/starter-packs/knowledge-base/research-with-sourcesManually: put the files in place
.devin/skills/research-with-sources/SKILL.mdThe legacy .windsurf/skills/ path still works
Skills CLI (Vercel)
npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a opencodeClaude.ai
Zip the folder and upload it in Settings → Capabilities → Skills
Step by step, with commands for each platform: How to install skills in Claude Code: five ways
Questions about research-with-sources
How do I install research-with-sources in Claude?
Run npx skills add inkeep/open-knowledge-skills --skill research-with-sources -a claude-code. The skill installs project-local, with the file at ~/.claude/skills/research-with-sources/SKILL.md.
What does research-with-sources do?
It researches a topic and writes a draft article under research/ with a citation on every claim. Sources are captured verbatim before analysis and the article is written as you read.
What does the skill need to run?
An agent host with the OpenKnowledge MCP server configured. It is installed project-local by ok seed --pack knowledge-base, or ok-beta for Beta.
Source text
SKILL.md · MIT
---
name: research-with-sources
description: "Investigate a topic against preserved sources and write a draft-status research article under `research/` in a Knowledge Base project (the `knowledge-base` starter pack). Read when asked to research a topic, compare options, synthesize sources, gather evidence, or extend an existing research doc. Carries the full procedure: scan existing coverage, agree a research rubric, capture every source verbatim before analyzing, write the article incrementally so a crash never loses work, cite every claim, and link it back into the graph. Does not promote findings to canonical knowledge — that is the sibling `consolidate-notes` skill, after a decision lands."
compatibility: "Any agent host with the OpenKnowledge MCP server configured. Installed project-local by `ok seed --pack knowledge-base` (`ok-beta` for Beta)."
type: Document
metadata:
pack: "knowledge-base"
author: "Inkeep"
repository: "https://github.com/inkeep/open-knowledge-skills"
---
# Research — gather sources and write provisional findings
> This skill is pack guidance. The platform `/open-knowledge` skill (read/write/preview/linking/grounding rules) still governs every markdown operation — this layers the procedure on top.
Conduct **evidence-driven research** on a topic and produce a provisional research article under `research/`. Provisional, not canonical: research articles capture findings, trade-offs, and open questions at a point in time. They are promoted to canonical articles via the `/consolidate-notes` skill only when decisions solidify.
The content directory is the resolved `content.dir` — read it with `config({ key: 'content.dir' })` if you don't already know it. Paths below are relative to it.
## Three paths
- **Path A — Research article (DEFAULT):** A persistent provisional article with `status: draft` and an inline `sources:` frontmatter list pointing at raw sources captured via the ingest procedure. This is the default unless the user explicitly opts out.
- **Path B — Direct answer:** Findings delivered in conversation only. **Requires explicit user request** (e.g., "just tell me", "no doc needed", "quick answer").
- **Path C — Update existing research:** Surgical additions/corrections to an existing research article. Triggered when the user references an existing research doc or says "update/refresh/extend."
Path A is the default because provisional articles compound over time; spoken answers do not.
**Legacy reads:** Existing articles may use `status: provisional` and string paths under `sources:`. Treat those as draft research and source resources. Do not mass-rewrite them; new writes use the OKF shapes below.
## Autonomy mode
| Mode | Behavior | How entered |
|---|---|---|
| **Supervised** (default) | Stop at the scoping gate for user rubric confirmation. Route coverage decisions interactively. | Default when a user drives the session. |
| **Headless** | Auto-confirm rubric after proposing it. Auto-select routing decisions. Skip interactive prompts. All other gates (scan, analysis, validation, grounding) still enforced. | Explicit "don't wait for me", "just proceed", "run headless" — or non-interactive container environments. |
In headless mode, propose the rubric AND proceed immediately. Mark the Scoping task completed after proposing.
---
## Mandatory execution order
**Hard gates — do NOT skip ahead.** If you find yourself about to run a `WebFetch` or `WebSearch` without completing Steps 0-2, STOP — you skipped a gate.
1. **Step 0: Create workflow checkpoint tasks** — ALWAYS the first action.
2. **Step 1: Scan existing coverage + route** — scan the content directory for prior work; classify coverage; present options before new research begins.
3. **Step 2: Collaborative scoping** — propose a research rubric. In Supervised mode, STOP and WAIT for user confirmation before any external fetch.
4. **Step 3: Capture raw sources via ingest** — preserve before analyzing.
5. **Step 4: Read + analyze** — third-party/external by default; first-party codebase only when the user explicitly requests.
6. **Step 5: Write the research article** — Path A only.
7. **Step 6: Link aggressively + file valuable Q&A back**.
8. **Step 7: Validate** — frontmatter, dead-links, sources alignment.
9. **Step 8: Recap + follow-up directions**.
**Path B shortcut:** If the user explicitly requested a direct answer in Step 2, skip Steps 5 and 7. Steps 0, 1, 3, 4, 6, 8 still apply (evidence discipline doesn't relax just because output is conversational).
---
## Report framing default: external / third-party sources
Research articles default to **external framing** — investigating third-party topics, technologies, concepts, public repos, papers, official docs. **Do NOT mix the user's own codebase analysis into the research article unless the user explicitly asks.** Mixing drifts findings from factual synthesis toward opinion-forming applied to the organization, reducing factual fidelity.
- **Default:** external sources (web, open-source repos, papers, official APIs).
- **Exception:** if the user asks "research how our X compares to Y" or "include our codebase," include it — but clearly separate first-party observations from third-party findings in the article so a reader can distinguish externally-verifiable facts from organization-specific takes.
---
## Persist as you go — the article IS your checkpoint
**PERSIST AS YOU GO — crash-safe checkpoint rule.** The single most expensive failure this procedure produces is completed research lost to a mid-session rate limit or crash — analysis held in context, never written, discarded when the session died. The user paid for work that vanished. The knowledge base is the checkpoint; two rules make every step crash-safe:
- **Ingest each source the moment you fetch it (Step 3), one at a time** — never fetch all sources and ingest them in a trailing batch. An ingested source survives a crash; a fetched-but-unwritten one does not.
- **Create the article skeleton early and fill it section-by-section as you read (Steps 4-5), not in one final write at the end.** After you analyze each source, `edit` its findings into the article before moving to the next. A crash after reading five of eight sources then leaves five sections safely in the KB; you resume by reading the partial article back, not by re-running the whole sweep.
Structured notes that live only in your context are not persisted work. If a finding is worth keeping, it belongs in an ingested source or in the article — written, not held.
---
## Step 0: Create workflow checkpoint tasks
**ALWAYS THE FIRST ACTION.** Before any read, any scan, any fetch — create tasks. They persist across context compaction, make skipped steps immediately visible, and show progress to the user.
Create these tasks via your host's task system (`TaskCreate` in Claude; equivalent elsewhere):
```
TaskCreate: "Research: Scan existing coverage + route" → start as in_progress
TaskCreate: "Research: Collaborative scoping — rubric gate" → pending, blocked by #1
TaskCreate: "Research: Capture sources via ingest" → pending, blocked by #2
TaskCreate: "Research: Read + analyze" → pending, blocked by #3
TaskCreate: "Research: Write the research article" → pending, blocked by #4
TaskCreate: "Research: Link aggressively + file Q&A back" → pending, blocked by #5
TaskCreate: "Research: Validate (frontmatter + dead-links)" → pending, blocked by #6
TaskCreate: "Research: Recap + follow-up directions" → pending, blocked by #7
```
Use the host's blocked-by relation to enforce ordering. As you complete each step, mark the task `completed` and the next task `in_progress`.
**Path B variant:** If scoping determines Path B (direct answer), drop tasks #5 and #7 — they don't apply.
**Path C variant:** If Step 1 routes to Path C (update existing), drop tasks #3 and #5 (ingest is usually unnecessary and no new article is created) and rename task #4 to "Research: Read existing article + diff deltas."
Why tasks: the observed failure mode is the agent jumping straight to `WebFetch` without scanning or scoping. Tasks make the skipped gates obvious to the user mid-session.
---
## Step 1: Scan existing coverage + route
**MANDATORY FIRST RESEARCH STEP.** Before any external fetch, scan what the knowledge base already holds.
### Phase 1: Check existing knowledge
**If the user explicitly references an existing research article** (names it, links it, says "update/refresh/extend"):
→ Skip the scan. Go directly to **Path C**.
**Otherwise, always scan first:**
1. `exec("grep -rln <topic-keyword> <content-dir>")` — returns matching files with frontmatter enrichment so you can judge relevance without opening each.
2. `exec("ls -A <content-dir>")` — surfaces folder layout and most-recent-updated doc per subdir.
3. For the **1-3 most promising candidates**, `exec("cat <path>")` — returns full doc + frontmatter + backlinks + recent shadow-repo activity.
Classify:
| Coverage | What it means | Route to |
|---|---|---|
| **Fully covered** | An existing article directly answers the question with evidence | Present findings; offer to elaborate, verify, extend, or explicitly new-report |
| **Partially covered** | Related research exists; the specific question is a natural extension | Offer: (1) extend existing via Path C, (2) new article via Path A |
| **Not covered** | No meaningful overlap | Proceed to Path A (default) or Path B |
### Phase 2: Present routing options (Supervised mode)
**Fully covered:**
> "We already have research on this in `<path>`. Here's what it found: [2-4 key findings]. Options: (1) use as-is, (2) verify / refresh (article is from [date]), (3) extend on [specific dimension], (4) new angle if this is a different framing."
Let the user choose. Do NOT start new research when existing research already answers the question.
**Partially covered:**
> "We have related research in `<path>` covering [scope]. Your question about [topic] isn't directly answered but it's a natural extension. Options: (1) extend existing via Path C, (2) start new article via Path A. I'd recommend [1 or 2] because [reason]."
**Not covered:**
Proceed to Step 2 (scoping). If the user asked for a quick answer, flag that Path B may apply and confirm in Step 2's scoping exchange.
**Headless mode:** auto-select — fully-covered → proceed to new article on the specific angle the caller requested; partially-covered → start new article; not-covered → Path A.
### Scan discipline
- **Do not skip the scan.** Even 30 seconds of grep + cat prevents duplicate research AND gives the user context on what's already known.
- **Bias toward extending (Path C)** when topics are semantically coherent — one comprehensive article beats two overlapping ones.
- **Bias toward new (Path A)** when framing, audience, or primary question differs materially.
---
## Step 2: Collaborative scoping (Supervised STOP gate)
**HARD GATE (Supervised mode).** Do NOT start external research until the user confirms the rubric. After proposing it, **STOP and WAIT for user response.** Only then mark the Scoping task completed.
**In headless mode:** propose the rubric AND proceed. Mark the task completed after proposing.
### Propose a rubric
Return this structure to the user:
```
## Proposed research rubric
**Question:** [narrowed from the original topic — concrete, answerable, bounded]
**Dimensions to investigate:** [3-7 facets]
1. [Dimension 1]
2. [Dimension 2]
...
**Candidate sources:** [3-8 initial guesses]
- [Source 1 — why it's relevant]
- [Source 2 — why it's relevant]
...
**Success criteria:** [2-3 concrete outcomes — "the article cites X authoritative sources", "open questions are marked explicitly", etc.]
**Output format:** Path A (article) | Path B (direct answer) | Path C (update `<existing-article>`)
```
### Scoping discipline
- If the original topic is vague ("research LLM agents"), narrow it before fetching: "What specific agents? For what decision? Over what time horizon?"
- If the topic is itself a URL, treat that URL as the anchor and widen to 2-4 adjacent authoritative sources.
- Name the **decision** this research informs. Research without a decision context meanders.
- Do not over-specify the rubric — the user can adjust. Propose, don't prescribe.
---
## Step 3: Capture raw sources via ingest
For each relevant URL, paper, or document in the confirmed rubric, follow the **ingest** procedure — it lives in the platform `/open-knowledge` skill at `references/ingest-and-sources.md`, not in this pack. **Typical research pulls 3-8 sources.** Too few → thin synthesis. Too many → you'll be reading for the rest of the session.
- **Don't skip ingest.** Raw preservation separates capture from interpretation and makes research reproducible. An article without preserved sources is just opinion; an article with preserved sources is a trail someone else can follow.
- If a fetch fails for a source you specifically need, **stop and ask the user to paste it** — don't silently drop it. Write-time fabrication of missing evidence is the biggest failure mode.
- If a fetch returns an obvious *summary* instead of the raw bytes (some LLM-backed fetch tools do this), note it and try a raw alternative (`curl -sL <url>`, or ask the user to paste).
---
## Step 4: Read + analyze
Read each ingested source carefully. Also load:
- **Existing canonical articles** on the topic — `exec("cat <path>")` (returns frontmatter + backlinks + shadow-repo activity).
- **Prior research** on adjacent topics — same: `exec("cat <path>")` for OpenKnowledge markdown.
- **Relevant source code** — ONLY if the user asked for first-party analysis. Use native `Read` for `.ts` / `.js` / etc.; `exec` for in-scope `.md` / `.mdx`.
- **Project context** — wherever the project keeps design material.
Take structured notes:
- **Key claims** and their evidence — every claim needs a source you can point at
- **Trade-offs** between options
- **Contradictions** between sources — these are often the most valuable part of the article
- **Unknowns** and open questions — the boundary of what you know
- **Relevance** to the specific decision at hand
**Write these notes into the article as you take them, not after (MUST — see *Persist as you go* above).** Create the article skeleton — frontmatter + the Step 5 section headings — before you start reading, then `edit` each source's findings into the relevant section the moment you finish analyzing it. The "notes" ARE the article's Findings section in progress; don't hold them in context to transcribe in one pass at Step 5. A rate limit between here and Step 5 must not be able to discard analysis you've already done. By the time you reach Step 5 the article is mostly written, and Step 5 becomes finalize-and-polish.
### Grounding discipline
Every factual claim in the article must cite its source inline. No unsourced speculation. If you don't have evidence: (a) run another search and cite it, (b) mark inline `(TODO: needs source)`, or (c) don't write the claim. Never fabricate.
---
## Step 5: Write the research article (Path A only)
If you followed *Persist as you go*, the article already exists and is substantially filled from Step 4 — this step **finalizes** it (fill any remaining sections, tighten the recommendation, run the structure + validation checks below) rather than writing from a blank doc. **If it does not exist or is thin, and you are resuming after an interruption: `exec("cat <path>")` the partial article back first and fill only the missing sections** — and note that any Step 4 analysis that was never written to the KB was lost when the session broke, so re-derive only what's actually missing. Creating the doc from scratch here means the incremental rule was skipped; that's the failure mode, not the happy path.
Save a markdown document inside the content directory. Path convention:
- If the project adopted the three-layer lifecycle (`external-sources/` → `research/` → `articles/`), save under `research/<slug>.md`.
- If the project has an existing docs/reports/specs layout, match it.
- Large topics warrant a subfolder: `research/<topic>/<subtopic>.md`.
Filename: descriptive, kebab-case (`crdt-alternatives-for-editor.md`, `llm-wikis-and-knowledge-bases.md`). No dates — dates go in frontmatter.
### Frontmatter
```yaml
---
title: Descriptive title
description: One-line summary of the research question
type: research-note
status: draft
date: YYYY-MM-DD
tags:
- research
- provisional
- <topic-tag>
sources:
- resource: ../external-sources/<source-1>.md
- resource: ../external-sources/<source-2>.md
---
```
### Structure
```markdown
## Question
[What specific question does this research answer? Be precise.]
## Context
[Why does this matter? What decision does it inform? Who is the reader?]
## Findings
[Main findings organized by theme, option, or criterion. Every claim cites a source inline.]
### Theme / Option 1
- Pros — with evidence links
- Cons — with evidence links
- Evidence: [Source A](../external-sources/source-a.md), [Source B](../external-sources/source-b.md)
### Theme / Option 2
...
## Trade-offs
[What you gain vs. lose with each option. A comparison table often helps.]
## Open questions
[What you still don't know — candidates for further research, prototyping, or human-judgment decisions.]
## Tentative recommendation
[Your best guess, clearly marked as tentative. Explain the reasoning so a future reader can re-evaluate when new information arrives.]
## Further reading
[Links to the ingested sources + adjacent research + any canonical articles on the topic.]
```
### Voice
- **Provisional, not canonical.** Use "tentative", "initial findings", "based on current understanding."
- **Do NOT write as if it were canonical** — that's misleading. Canonicality is the `/consolidate-notes` skill's job, after decisions land.
- **Explicit about uncertainty.** Research is the layer where uncertainty is allowed to live.
---
## Step 6: Link aggressively + file valuable Q&A back
Research articles are discovery surfaces. Under-linked research becomes an island nobody finds.
### Link discipline
- Every noun-phrase that names another document is a link. Use standard markdown: `[text](./relative/path.md)`.
- Link sources inline where you cite them, not just in the frontmatter `sources:` list: `According to [LLM Agents](../external-sources/llm-agents.md)...` is stronger than a bare `sources:` entry.
- Cross-link sibling research: if an adjacent topic has its own research doc, link it under "Open questions" or inline. Readers following one thread should find the others.
- After writing, update 1-2 closely-related existing pages to link back to this research (usually under "Further reading" or "See also"). This is how the research becomes discoverable via backlinks.
- Never wrap links in backticks; never use HTML anchors — matches the platform skill's linking rules.
### File valuable Q&A back
If the user asked a specific question during the research session that produced a citable answer, capture it as its own short page alongside the research — not just as chat. Concrete questions with sourced answers are the highest-signal unit of knowledge you can produce.
- Short filename: `what-does-X-mean.md`, `how-does-Y-work.md`
- Include the same object-shaped `sources:` frontmatter
- Link the answer from this research doc under "Further reading"
- Answers too small to justify a separate file stay in chat; don't fragment
---
## Step 7: Validate
Run this checklist before marking complete:
- File exists at the chosen path under the content directory
- Frontmatter has `title`, `description`, `type: research-note`, `status: draft`, `date`, and an object-shaped `sources:` list
- `exec("ls -A <dir>")` lists the new file with frontmatter enrichment
- `audit({ path: "<doc-path>.md" })` returns clean (every lint violation + broken internal link) — fix every finding
- Every factual claim in Findings cites a source inline
- Linked source files from Step 3 all exist (broken source links → ingest went wrong somewhere)
- At least 1-2 neighbor docs now link to this research (per Step 6's "After writing, update ..." rule)
---
## Step 8: Recap + follow-up directions
Close the loop with the user in conversation:
```
## Recap
- [Finding 1 — with source]
- [Finding 2 — with source]
- [Key trade-off / contradiction surfaced]
- [1-2 open questions that remain]
**Tentative recommendation:** [state it in one sentence]
**Follow-up research directions** (Path A candidates for later):
1. [Direction 1 — what would it investigate?]
2. [Direction 2 — what would it investigate?]
3. [Direction 3 — what would it investigate?]
```
Follow-ups should be **external-source investigations** — not actions on the user's codebase (those belong in a spec, not more research). Each direction should be a standalone topic someone could later research.
In headless mode, write the recap into the research article's "Further reading" section rather than prompting interactively.
---
## Non-goals
- **Don't promote to a canonical article.** That's the `/consolidate-notes` skill's job after a decision actually lands. Premature canonicalization buries uncertainty and misleads future readers.
- **Don't hide uncertainty.** Research is the layer where "we don't know yet" is acceptable prose. Say it explicitly.
- **Don't skip ingest.** Always capture raw sources first, then analyze. An article without preserved sources is opinion.
- **Don't skip the Step 1 scan.** Duplicate research wastes the user's time AND misses chances to extend prior work.
- **Don't skip the scoping gate in Supervised mode.** The user's rubric shapes everything downstream; you cannot recover a wrong-scope article cheaply.
- **Don't mix first-party codebase analysis into the article unless asked.** Findings drift from factual synthesis to opinion when you do.
- **Don't overwrite existing research silently.** If the topic was researched before, either iterate (Path C) or create a clearly-named successor (`crdt-alternatives-2.md`) and mark the old one as superseded.
© Inkeep · MIT · inkeep/open-knowledge-skills