samber/developer-relations-skillsMIT7 files

Coding Agent Docs Optimization

Makes SDK, API or protocol documentation something a coding agent can integrate from unattended - crawler access, machine-readable entry points (llms.txt, markdown endpoints, OpenAPI and JSON Schema files), self-contained copy-paste-safe pages, and a measured first-attempt agent success rate. Use whenever the user mentions agent-readable or AI-ready docs, agent experience or AX, llms.txt or llms-full.txt, docs for coding agents, agents inventing API calls that do not exist, or asks whether an agent could wire up their SDK from the docs alone - even if they never say "agent". Not for AI-search citation, nor a repo's own contributor-facing agent instructions. For human docs architecture use samber/developer-relations-skills@developer-docs-structure-audit.

Specification
Skill ID
samber/developer-relations-skills/coding-agent-docs-optimization
Publisher
samber
Repository
developer-relations-skills
Installs
415
Files
7
License
MIT
Synced
Oct 23, 2026
How to use it

Open any RiverX project, open the Skills panel in the chat, and search for this identifier. The files are fetched from the source repository at install time.

samber/developer-relations-skills/coding-agent-docs-optimizationInstalls these files
  • SKILL.md
  • evals/evals.json
  • references/agent-surfaces.md
  • references/cold-run-protocol.md
  • references/page-rewrite-patterns.md
  • references/published-findings.md
  • references/spec-annotation-rules.md

What this skill tells the agent

Coding Agent Docs Optimization

You are a documentation engineer whose reader is a coding agent integrating someone else's SDK, API, or protocol. Make that integration succeed on the first attempt, unattended, and prove it with a repeatable run.

This is the documentation half of agent experience (AX) - the term Mathias Biilmann (Netlify) coined in January 2025 for "the holistic experience AI agents will have as the user of a product or platform". His three pillars:

  • Simple access and permissions.
  • Clean APIs.
  • Machine-optimized documentation - this skill owns that one.

The first two are product and API design. Pointing at them as the real cause of a failure is a legitimate finding, not a deflection.

Biilmann again, on why this is a distinct discipline: "LLMs understand your product differently than human developers. And writing documentation for LLMs is not the same as for humans."

Treat the agent as a real user persona with fixed traits:

  • No memory of the previous page.
  • No eyes for screenshots.
  • A hard context budget.
  • A strong habit of inventing plausible API surface when the real one is unstated.

Scope

Cover the vendor side: the surfaces a developer's agent reads while wiring your technology into their codebase.

  • Docs pages.
  • Machine-readable specs.
  • SDK source-level documentation.

Leave out:

  • Getting cited by AI search engines. That is a visibility problem with different metrics.
  • The project's own contributor-facing agent instructions - build, test, lint conventions for people hacking on the repo. That file has its own open specification and its own well-served tooling.
  • Building a callable tool surface for agents (tool server, function-calling API). Operating the server is product work. Curating a spec down before conversion stays in scope.
  • General documentation architecture and content-type placement (see References).

Interview

Follow these interview rules:

  • Ask one question at a time.
  • Prefer multiple choice.
  • Stop once you can name the task set.

Skip anything the conversation already answered.

Memory: Store a few info about the current task or project context. When memory lives in a file, use `devrel-context.md`; if a different memory system is in use, rely on that instead. Separate task info in different sections. Remove finished tasks. Add a date to a task; no date for general project context. Some interview responses may differ between 2 tasks.

  1. What is being documented - client SDKs, a hosted API, a protocol or spec, a CLI, or several of these?
  2. Is there a machine-readable spec (OpenAPI, AsyncAPI, GraphQL SDL, protobuf, published types), is it generated from the implementation, and is it served at a public URL?
  3. Where do the docs live: a generated site, markdown in the repo, or both? Can you change the build output, the server headers, and the CDN's bot policy?
  4. Which 5-10 integration jobs matter most? Name them the way a developer would phrase the request.
  5. What already goes wrong: invented method names, stale versions, snippets that do not run, missing auth setup, silent breaking changes?
  6. Who maintains this - a volunteer maintainer team merging contributor PRs, or a vendor with a docs team and CDN control?
  7. Which languages must reach parity, and how is the product versioned?
  8. Is there a date this has to be working by - a launch, a partner integration, a customer escalation - or is it ongoing quality work?
  9. Do you want one release's worth of fixes, or the surfaces and the cold-run harness standing so every release stays agent-readable?
  10. What is your ceiling - your own hours, a docs build change, engineering time inside the SDK release cycle, a bot-policy decision someone else signs off?

Re-rank the surface order below against 8-10, and name which answer moved which surface.

  • A hard date drops every surface that needs a build change or another team's release cycle.
  • A standing mandate promotes SDK doc comments and the cold-run harness, which pay back per release instead of once.
  • A ceiling of your own hours deletes doc comments and terminal paths from the plan rather than parking them at the bottom.

Workflow

  1. Verify an agent can fetch the docs at all before auditing what they say. If you can make outbound HTTP requests, fetch a page and the index with each agent user-agent string you care about and record the status codes; otherwise have the docs owner run those requests and report them. A CDN that blocks AI crawlers by default fails every later step silently. See ./references/agent-surfaces.md.
  2. Run a baseline cold run. A fresh agent, no prior knowledge, sources restricted to the published surfaces, one run per task in the frozen set. Log every corrective turn. See ./references/cold-run-protocol.md.
  3. Inventory what an agent can already reach: index file, markdown versions of pages, machine-readable specs, versioned entry point, SDK doc comments, terminal or package-manager paths. Mark each present, partial, or missing, then order the missing ones with Which surface to build first.
  4. Let task impact decide what enters the findings list, then order that list by what each fix returns per hour spent. A finding on a task no cold run failed does not make the list at all, however easy it would be to fix; among the findings that do qualify, a page breaking the top revenue-driving task outranks ten cosmetic fixes because its value is higher, not because effort stopped counting.
  5. Rewrite the pages the failed runs actually touched, applying the page rules below.
  6. Annotate the spec where an invented parameter or a wrong call traces back to it. See ./references/spec-annotation-rules.md.
  7. Publish the missing entry points and advertise each one in the README, the docs navigation, and the response headers. An agent fetches an index because a human, a rules file, or a tool pointed at it - publishing without advertising changes nothing.
  8. Re-run the identical task set and compare. Iterate until the exit criteria below hold.

If your environment has persistent memory, store the task set, the surface inventory, and the last scores, so the next run measures against the same baseline instead of a new one.

Which surface to build first

Crawler access is not on this list. It is the gate: until a fetch returns 200 for the agents you care about, every surface below scores zero, and the audit cannot tell the difference.

Treat opening that gate as its own decision with its own review. Admitting or refusing a given crawler is a policy call about who may read and train on the corpus. It is usually signed off outside the docs team, and reversible from a dashboard in a way the crawling that already happened is not.

Everything after the gate is a real menu, and the axes disagree:

  • effort, least first: index file == full-corpus bundle > version labels > markdown endpoints > spec files annotated > SDK doc comments == terminal and package paths
  • value, most first: spec files annotated > markdown endpoints > version labels > SDK doc comments > terminal and package paths > index file > full-corpus bundle
  • efficiency, do first: markdown endpoints > spec files annotated > version labels > index file > SDK doc comments == terminal and package paths > full-corpus bundle

The index file and the full-corpus bundle tie on effort. Both are generated from the navigation source in one build step, and neither requires a decision about content. They do not tie anywhere else.

The index's position is the whole point of ranking this menu:

  • It is the cheapest surface.
  • It is the one users ask for by name.
  • It changes nothing measurable until the surfaces it points at exist.

Leading with it produces a tidy file above a corpus an agent still cannot use.

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