robot-bringup

Manage ordered ROS2 robot startup with hardware checks and systemd services.

Updated May 3, 2026
One-click install
npx skills add https://github.com/elliewlh2094/codex-robotics-skills --skill robot-bringup-elliewlh2094
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: robot-bringup
Source: https://github.com/elliewlh2094/codex-robotics-skills/tree/main/.agents/skills/robot-bringup
Command: npx skills add https://github.com/elliewlh2094/codex-robotics-skills --skill robot-bringup-elliewlh2094

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) and references (resource) components.

What problem does it solve?

This Skill addresses the complexity of configuring and managing the startup, diagnostics, and shutdown procedures for ROS2-based robots, ensuring reliable initializations and safe operations.

Core Features & Use Cases

  • Automated Startup Sequencing: Establishes a layered startup where hardware drivers, perception systems, and application nodes are launched in order, with dependency management.
  • Device Readiness Checks: Performs hardware presence verification via udev rules and scripts before launching drivers.
  • Systemd Service Management: Provides templates and configurations for resilient, restart-capable ROS2 services with watchdog support and resource limits.
  • Network and Environment Configuration: Sets consistent environment variables, network settings, and udev mappings to ensure deterministic device naming and multi-machine operation.
  • Quick Start: Use the provided systemd templates and launch files to deploy a production-ready ROS2 robot stack with ordered startup and safety checks.

Frequently Asked Questions about robot-bringup

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I automate ROS2 robot startup with ordered hardware initialization and node launching?

Automated ROS2 robot startup is facilitated by establishing a layered sequence where hardware drivers, perception systems, and application nodes launch in order with dependency management. This ensures reliable initialization and safe operations within a production environment.

How do I configure systemd services for resilient ROS2 nodes with restart and watchdog support?

Systemd service management for ROS2 nodes is configured using provided templates that enable resilient, restart-capable services. These templates include watchdog support and resource limits to ensure services recover from failures during operation.

How do I ensure deterministic device naming for robot hardware in a multi-machine ROS2 network?

Deterministic device naming in a multi-machine ROS2 network is ensured by setting consistent environment variables, network settings, and udev mappings. This configuration guarantees environment consistency and reliable multi-machine operation.

What is the best way to perform device readiness checks before launching ROS2 drivers?

Device readiness checks are performed by verifying hardware presence via udev rules and scripts before launching ROS2 drivers. This prevents startup failures by ensuring all required physical devices are connected and properly mapped.

Can I use this ROS2 startup management for complex hardware configurations and multi-machine setups?

This ROS2 startup management supports multi-machine and complex hardware configurations by verifying dependencies and ensuring services recover from failures. It satisfies requirements for environment consistency, resource constraints, and deterministic failure recovery protocols.

Why does my ROS2 launch fail when hardware dependencies are not verified during system startup?

ROS2 launch failures occur when hardware dependencies are not verified because drivers attempt to access unavailable devices. The system prevents this by performing hardware presence verification via udev rules before initiating the ordered startup sequence.