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Container-MCP

MCP Server

Secure, container‑based MCP server for sandboxed AI tool execution

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Updated Sep 23, 2025

About

Container-MCP provides a multi‑layered, containerized environment that implements the Model Context Protocol to safely execute commands, run Python code, manage files, browse the web, and store knowledge for large language models.

Capabilities

Resources
Access data sources
Tools
Execute functions
Prompts
Pre-built templates
Sampling
AI model interactions

Overview

Container‑MCP is a purpose‑built, container‑based implementation of the Model Context Protocol (MCP) that enables large language models to safely execute code, run system commands, manipulate files, and perform web operations. By exposing these capabilities as MCP tools, the server allows AI assistants to invoke powerful actions while keeping the host system protected. The core problem it solves is the tension between giving an AI assistant functional breadth and preventing malicious or accidental damage to production environments. Container‑MCP achieves this by isolating every operation in a lightweight, sandboxed container that enforces strict resource limits and access controls.

The server’s architecture is centered on a domain‑specific manager pattern. Each manager—BashManager, PythonManager, FileManager, WebManager, and KnowledgeBaseManager—encapsulates a distinct set of operations and applies its own security policies. For example, the BashManager runs shell commands inside a Podman or Docker container that is additionally protected by AppArmor and Firejail profiles. This multi‑layered approach guarantees that even if a command attempts to escape the sandbox, it will be blocked by the underlying operating‑system policies. Resource limits (CPU, memory, execution time) and path traversal checks are enforced at both the container and manager levels.

Key capabilities include:

  • Secure tool discovery and async execution via MCP, allowing AI clients to query available actions and invoke them without needing to know the underlying implementation details.
  • Fine‑grained resource management, ensuring that each task consumes only a predefined slice of system resources and cannot starve other processes.
  • Extensible configuration through environment variables, enabling developers to tailor the sandbox environment for development or production workloads without code changes.
  • Built‑in semantic search in the KnowledgeBaseManager, providing structured document retrieval that can be leveraged by AI assistants for knowledge‑based queries.

Real‑world use cases span from automated data pipelines to interactive development assistants. A data engineer can let an AI assistant fetch, transform, and store datasets by invoking with a short script that pulls from an API, cleans the data, and writes to a database—all within the safe confines of a container. A DevOps team might use to trigger deployment scripts or run health checks, confident that the commands cannot compromise host infrastructure. Educational platforms can offer students a sandboxed coding environment where an AI tutor evaluates code snippets without risking the host system.

Integrating Container‑MCP into existing AI workflows is straightforward: an MCP client (such as Claude or another LLM‑powered assistant) discovers the server’s tools, passes the required parameters, and handles the responses. Because all interactions conform to MCP’s standardized request/response format, developers can focus on business logic rather than security plumbing. The standout advantage of Container‑MCP is its defense‑in‑depth model—combining container isolation, OS‑level security profiles, and strict resource controls—to provide a robust, auditable platform for executing arbitrary code on behalf of an AI assistant.