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How to Connect Your GPU-Hosted LLM to OpenClaw.ai

Running your own LLM on a GPU is empowering. Connecting it safely to real tools is the hard part. This guide walks through how to connect a GPU-hosted LLM to OpenClaw—so your model can execute actions, call tools, and stay under your control.

Clawctl Team

Product & Engineering

How to Connect Your GPU-Hosted LLM to OpenClaw.ai

Running your own LLM on a GPU is empowering. Connecting it safely to real tools is the hard part.

This guide walks through how to connect a GPU-hosted LLM (local or cloud) to OpenClaw.ai, so your model can execute actions, call tools, and stay under your control.

No magic. No SaaS lock-in. Just a clean control plane.


Why Connect Your Own LLM to OpenClaw?

If you're already hosting an LLM on a GPU (AWS, GCP, Lambda Labs, on-prem, or DGX), you probably want:

  • Full control over models, weights, and prompts
  • Predictable latency and cost
  • The ability to execute tools (CLI, APIs, workflows)
  • A secure boundary between reasoning and execution

That's exactly what OpenClaw is designed for.

OpenClaw doesn't replace your model. It wraps it with structure, permissions, and execution safety.


Architecture Overview

At a high level, you're splitting responsibilities:

  • Your GPU → reasoning, planning, text generation
  • OpenClaw → tool execution, safety, permissions, observability

Flow:

  1. User or system prompt hits your LLM
  2. LLM decides what to do
  3. OpenClaw decides whether it's allowed
  4. Tool executes in a sandbox
  5. Result flows back to the LLM

Step 1: Run Your LLM on a GPU

You can host your model however you want, as long as it exposes an HTTP API.

Common setups:

  • vLLM (recommended for throughput)
  • Ollama (simple + local)
  • TGI / Text Generation Inference
  • Custom FastAPI / Flask wrapper

Example (FastAPI):

from fastapi import FastAPI
from pydantic import BaseModel

app = FastAPI()

class Prompt(BaseModel):
    input: str

@app.post("/generate")
def generate(prompt: Prompt):
    output = llm.generate(prompt.input)
    return {"text": output}

Your GPU does one job only: generate text.


Step 2: Install OpenClaw

OpenClaw runs as a separate service (local or remote).

curl -fsSL https://openclaw.ai/install.sh | bash

This gives you:

  • A secure execution runtime
  • A policy engine
  • A tool registry
  • Audit logs

Think of it as a control plane for AI actions.


Step 3: Register Your LLM as a Reasoning Engine

Tell OpenClaw where your model lives:

llm:
  name: gpu-llm
  type: http
  endpoint: http://gpu-llm:8000/generate
  timeout_ms: 30000

OpenClaw does not need your weights. It just needs a clean interface.


Step 4: Define Tools Your LLM Can Use

This is where OpenClaw shines.

Example: allow safe shell commands.

tools:
  - name: list_files
    type: shell
    command: ls
    sandbox: true
    permissions:
      - read_only

Or API calls:

tools:
  - name: create_ticket
    type: http
    method: POST
    url: https://api.internal.com/tickets

Your LLM can request tools. OpenClaw decides if they're allowed.


Step 5: Let the LLM Call Tools (Safely)

Your prompt format might look like:

You are an agent.
If an action is required, respond in JSON:

{
  "tool": "list_files",
  "reason": "Check directory contents"
}

OpenClaw:

  • Parses the intent
  • Validates permissions
  • Executes the tool
  • Returns structured output

Your LLM never touches the system directly.


Step 6: Observe, Audit, and Iterate

Every action is logged:

  • Tool name
  • Inputs / outputs
  • Execution time
  • Success / failure

This matters when:

  • You deploy to teams
  • You expose agents to users
  • You care about security reviews

Common Deployment Patterns

Local GPU + OpenClaw

  • Ideal for research and experimentation

Cloud GPU + OpenClaw

  • Production agents
  • Team access
  • Strong isolation

Multiple LLMs, One OpenClaw

  • Fast model for routing
  • Big model for reasoning
  • Same execution layer

What This Buys You

By separating reasoning from execution, you get:

  • 🔐 Strong security boundaries
  • 🧠 Model flexibility (swap anytime)
  • 🛠 Tool reuse across agents
  • 📊 Real observability
  • 🚫 No prompt-based "hope and pray" safety

This is the difference between chatbots and real agents.


Final Thoughts

If you're serious enough to host your own GPU, you're serious enough to control execution.

OpenClaw gives you:

  • The freedom of self-hosted LLMs
  • The discipline of production systems

Your model thinks. OpenClaw acts.

If you want, next we can:

  • Add streaming
  • Add multi-agent routing
  • Lock this down for enterprise
  • Or turn this into a "WP Engine for AI agents" style deployment

Just say the word.


Deploy OpenClaw with Clawctl — control plane for your GPU-hosted LLM.

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