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Raphael_m edited this page Jun 20, 2025 · 1 revision

Technology Environment - Griffon

1. Introduction

This document describes the technological environment of Griffon, an advanced Linux monitoring and security analysis system. It covers the key technologies, development tools, infrastructure components, hardware requirements, and best practices that have been selected to support the project’s development and ensure its long-term quality, scalability, and maintainability.

2. Technologies & Libraries

2.1 Main Language: Rust

  • Rust is chosen for its native performance close to C++ and strict memory safety thanks to its ownership model and absence of garbage collector.
  • Enables writing reliable and efficient code, critical for monitoring and security tools.
  • Key libraries used:
    • tokio: high-performance async runtime
    • serde: serialization/deserialization (JSON)
    • yara bindings: static malware file analysis
    • procfs, nix: access to Linux system APIs
    • docker-api: Docker image management
  • Associated tools:
    • cargo (build system, dependency manager)
    • rustfmt (code formatting)
    • clippy (linting and code quality)
    • cargo audit (dependency security auditing)

2.2 User Interface

Griffon's user interface is a native desktop application, built using Tauri for the backend and React to define the frontend layout and interaction logic. It is not a web app and does not run in a browser.

Key characteristics of this architecture:

  • Tauri provides a secure, lightweight, and native shell for the application:

    • Embeds the system’s native WebView to render the React UI

    • Allows secure communication between the Rust backend and the UI

    • Extremely low memory footprint (~3 MB)

  • React is used purely as a UI framework (not a web interface):

    • Modular and reusable component design

    • Smooth rendering and dynamic updates inside the Tauri shell

    • No internet connection or browser required

This architecture offers the flexibility and developer efficiency of a modern UI framework with the security and performance of a compiled native app.

2.3 Analysis & Security Tools

  • Integration of YARA, industry standard for malware signature detection.
  • Use of native Linux APIs (procfs, netstat, lsof) to gather and analyze system info without heavy external dependencies.

3. Infrastructure & Deployment

  • Development environment: primarily Linux, with WSL compatibility for Windows users.
  • Use of Docker for isolated dev environments, automated testing, and continuous deployment.
  • Distribution methods:
    • Static Rust binary (release mode)
    • Linux packages (.deb, .rpm)
    • Docker images
  • Desktop UI embedded with Tauri and React.
  • A lightweight landing website is provided to showcase the project, documentation, and installation guides.

4. Hardware Requirements

  • Target platform: Linux x86_64 architecture.
  • Recommended RAM: minimum 4 GB, ideally 8 GB for optimal performance.
  • No specialized hardware or GPU required.
  • Suitable for both user workstations and dedicated servers.

5. Essential Rust Commands & Tools

  • cargo build: compile the project (debug mode).
  • cargo build --release: compile optimized production binary.
  • cargo run: compile and run the project.
  • cargo test: run unit and integration tests.
  • cargo fmt: auto-format source code.
  • cargo clippy: static analysis for code improvements.
  • cargo audit: check dependencies for known vulnerabilities.
  • cargo watch: watch source files and auto-rebuild on changes (improves dev workflow).
  • rustup: Rust toolchain version manager.

6. Maintainability and Community

  • Regular updates of dependencies and technology monitoring.
  • Technical documentation maintained on GitHub and dedicated website.
  • Active participation in Rust and Linux communities via forums and open-source contributions.
  • Project licensed under GPL v3 to ensure transparency and longevity.

7. Conclusion

The chosen technological environment for Griffon combines performance, safety, lightness, and modernity. Rust and its mature ecosystem provide reliable and efficient code. Tauri and React offer a modern UI with low memory consumption. Docker and Linux packages provide flexible installation and deployment options. The dedicated landing site supports project promotion and documentation.

This setup allows Griffon to effectively meet the demands of an advanced Linux monitoring and security tool.

Document version 0.1 — To be completed and updated throughout the project.

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