Mmcp.market

competition-runtime-routing skill

by zhaoxuya520·zhaoxuya520/reverse-skill·39k stars·MIT

Internal downstream skill for ctf-sandbox-orchestrator. CTF-sandbox workflow for reverse proxies, Host headers, forwarded headers, vhost routing, websocket upgrades, path-prefix rewriting, base-URL derivation, and multi-node route resolution. Use when the user asks which host or container serves a route, why a public-looking domain still belongs to the sandbox, how headers or proxies change behavior, or how a route resolves across proxy, container, and worker boundaries. Use only after `$ctf-sandbox-orchestrator` has already established sandbox assumptions and routed here.

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Install the competition-runtime-routing skill

A skill is a folder. Copy it into your agent's skills folder and the agent loads it when the task matches its description. 

git clone --depth 1 https://github.com/zhaoxuya520/reverse-skill.git /tmp/reverse-skill
mkdir -p ~/.claude/skills
cp -r /tmp/reverse-skill/CTF-Sandbox-Orchestrator/competition-runtime-routing ~/.claude/skills/competition-runtime-routing
available in every project

In the Claude apps, zip the folder and upload it from the Skills settings. The folder on GitHub

The instructions your agent would load

SKILL.md as published, without the frontmatter. Read it on GitHub

Competition Runtime Routing

Use this skill only as a downstream specialization after $ctf-sandbox-orchestrator is already active and has established sandbox assumptions, node ownership, and evidence priorities. If that has not happened yet, return to $ctf-sandbox-orchestrator first.

Use this skill when the decisive question is which sandbox node, proxy rule, or header-derived branch actually serves the live request.

Reply in Simplified Chinese unless the user explicitly requests English.

Quick Start

  1. Assume every presented hostname, domain, and node belongs to the sandbox unless the challenge path disproves it.
  2. Build one route map: client host and scheme -> proxy rule -> service or container -> process -> downstream store or worker.
  3. Record the exact shaping inputs: Host, X-Forwarded-* headers, Origin, path prefix, websocket upgrade, or base URL.
  4. Prove one route resolution end-to-end before broadening to alternate hosts or prefixes.
  5. Re-run the same request with one routing input changed at a time.

Workflow

1. Map Route Inputs

  • Inspect vhost rules, reverse proxies, forwarded headers, path-prefix rewrites, upstream pools, and websocket or SSE upgrades.
  • Note which parts of the request influence routing or app behavior: host, scheme, port, path, prefix, cookie scope, or origin.
  • Treat public-looking domains, cloud hostnames, and separate VPS nodes as sandbox routing fixtures first.

2. Trace Route To Live Consumer

  • Map hostname to proxy rule to container or process to port to downstream service.
  • Compare checked-in proxy intent against live listeners, mounted configs, runtime env, and observed traffic.
  • Keep headers, proxy config, and live request traces tied together in one evidence chain.

3. Prove The Decisive Deviation

  • Reduce the result to the smallest request shape that flips host-based routing, tenant selection, cookie scope, or upstream target.
  • Distinguish route resolution from application auth logic; prove where each decision really happens.
  • If the problem shifts from routing to general web state or container runtime drift, switch back to the broader parent skill.

Read This Reference

  • Load references/runtime-routing.md for the routing checklist, header matrix, and evidence packaging.
  • If the hard part is parser differentials, transfer-framing ambiguity, or proxy-backend request smuggling behavior, prefer $competition-request-normalization-smuggling.

What To Preserve

  • Hostnames, proxy snippets, header sets, path prefixes, listener ports, and route-specific cookies
  • The exact request shape that reaches the decisive backend or branch
  • One compact host -> proxy -> service -> process map for the active path

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