Use Case · Keep Developers in Context

Keep Developers in Context. Close the Runtime Loop Inside Claude Code, Cursor, and Codex.

Runtime feedback belongs inside the tool that wrote the code. Dstl8 exposes your live incidents, patterns, and root cause narratives over MCP, plus a Claude Code Skill that teaches agents how to use them. Every prompt in Claude Code, Cursor, or Codex is grounded in what actually happened in production.

MCP + Skills

Two entry points

40+

Compatible agents

11

Platform integrations

0

Code changes required

runtime is the context the agent never saw

fix grounded in production, not in test output

MCP server + Skill · open standards · 40+ agents

incidents · patterns · anomalies · knowledge graph

claude code · cursor · codex · gemini cli · windsurf

local dev → staging → production · one query

npx skills add control-theory/dstl8-skill

one prompt, grounded · one fix, correct the first time

runtime is the context the agent never saw

fix grounded in production, not in test output

MCP server + Skill · open standards · 40+ agents

incidents · patterns · anomalies · knowledge graph

The SDLC compressed. The feedback loop did not move with it.

AI coding tools compressed writing, testing, and shipping into a single session. What they did not compress is runtime. That gap is where this use case lives.

Claude Code, Cursor, and Codex all close the loop from prompt to commit
None of them close the loop from commit to runtime
Runtime evidence sits in a dashboard, a separate tab, a separate tool
The developer pays the context switch, not the agent
The same failure pattern gets rediscovered session after session, engineer after engineer

Closing the loop means putting runtime back where the code gets written, as structured evidence the agent itself can read.

TLDR

AI coding tools closed the loop from prompt to commit. Runtime is the loop that’s still open, and the developer is paying the tab-switch to close it.

Four parts of Dstl8 that make this work.

01

MCP server plus a Skill, native to every MCP-capable agent

Dstl8 exposes your runtime signal as MCP tools and ships a companion Skill that teaches agents how to orchestrate them. MCP gives the agent the raw tools. The Skill gives it a playbook: how to triage, how to verify a deploy, how to correlate across environments. Both follow open standards, so the same integration works in Claude Code, Cursor, Codex, Gemini CLI, Windsurf, and 40+ other coding agents.

# Claude Code: MCP config
“mcpServers”: { “dstl8”: { … } }
# Plus the Skill, cross-agent
npx skills add control-theory/dstl8-skill

02

Structured incidents, patterns, anomalies, knowledge graph

Dstl8’s MCP surface is designed for LLMs to reason over, not for humans to scroll past. Agents can query live incidents, detected patterns, runtime anomalies, and a knowledge graph of resolved findings. Every response is structured data with cited evidence and relevant context, so the agent can act on it and attribute the fix.

# MCP surface exposed to agents
incidents · patterns · anomalies · knowledge graph

03

Möbius agents watching every environment continuously

Möbius agents watch your runtime across local dev, staging, and production. They auto-detect incidents, write root cause narratives, and push alerts to Slack before a customer files a ticket. When an agent queries, it gets the same context a senior engineer would hand over in a standup.

04

Runtime signal from local dev through production

Vercel, Supabase, Railway, AWS CloudWatch, Kubernetes, OpenTelemetry, Netlify, Render, Fly.io, Cloudflare Workers, plus Gonzo forwarding for local dev. Cross-environment correlation from local to staging to production is first-class, not a special case. When your agent asks about runtime, it gets an answer that spans wherever the code is actually running.

TLDR

Runtime becomes structured data the agent reads directly. No plugin, no SDK, no dashboard tab.

One session, with and without the loop closed.

An example Claude Code session, shown two ways. The first prompt goes the way most prompts go today. The second shows what changes when runtime is part of the context.

Without runtime context. The developer pastes the error message. Claude Code reads the failing test, reads the source, proposes a fix. The fix handles the specific error shape in the pasted stack trace. It does not know that the same function is currently throwing three other error types in production for different reasons. The committed fix is shipped. The second error class resurfaces within the day.

With Dstl8 over MCP. The developer says “fix the failing /checkout endpoint.” Claude Code queries Dstl8 first. Dstl8 returns INC-1423, names the real root cause (missing metadata.userId on specific Stripe event types), and includes the two correlated errors that share the same underlying assumption. The agent’s fix addresses the class, not the symptom. One commit. One deploy. The pattern closes.

Session type: agent-led bug fix · Runtime surface: Vercel + Stripe webhook
Outcome difference: two deploys → one deploy

TLDR

Runtime in the prompt produces one correct fix, not three iterative ones.

Runtime built for agents, not dashboards.

Works in every agent that speaks MCP or Skills.

Claude Code, Cursor, Codex, Gemini CLI, Windsurf, GitHub Copilot, 40+ others. The MCP server and the Skill both follow open standards (agentskills.io), so the same integration works everywhere your team writes code. No per-agent plugin, no custom SDK.

Not grep-able text.

Every MCP response is structured: incidents, patterns, anomalies, knowledge graph entries, root cause narratives. Agents reason over fields; they do not parse summaries.

Local → staging → production.

First-class, not a special case. Gonzo forwards local dev logs into the same knowledge graph that Dstl8 maintains for staging and production. One query, every environment.

Findings persist across sessions, developers, and deploys.

When an incident gets resolved, the root cause, the evidence, and the fix land in the knowledge graph. A Claude Code session next week asking a similar question gets the known answer, not a cold-start diagnosis. The team’s runtime experience compounds instead of being rediscovered every time.

Related pages for the tools and symptoms.

Dstl8’s MCP server and Skill are both agent-agnostic. These are the tool-specific pages and resources where in-context feedback loops are the core argument.

Claude Code Runtime Reality

Agent-led sessions ship with forty decisions you never saw. Runtime feedback loops close the gap.

Cursor AI Uncertainty

Tab completion has no uncertainty signal. Runtime is the one signal you can trust.

OpenAI Codex Debugging

Function-level completion, class-level failures. Runtime context feeds back into every fix.

AI-Generated Code Runtime Errors

Five structural failure modes of agent-shipped code. MCP is where the fix starts.

AI SDLC

The AI SDLC
The compressed software lifecycle and where the feedback loop still has to close. Strategic framing for the runtime gap MCP fills.

Dstl8 Product Page

The runtime feedback loop for AI-generated code. Full product tour.

What teams ask before adopting this.

Close the Loop in Your Next Agent Session.

Free account. Connect the Dstl8 MCP server, install the Skill, or both. Every session after that runs with runtime feedback in the prompt.

Runtime belongs in the prompt.

Dstl8 closes the runtime feedback loop for every agent you run. MCP, Skill, or both. Every session grounded.