ROS (Robot Operating System) is a flexible framework for writing robot software. It is a collection of tools, libraries, and conventions that aim to simplify the task of creating complex and robust robot behavior across a wide variety of robotic platforms.
Why this server?
Collects ROS 2 /rosout logs.
Why this server?
Provides tools for analyzing ROS2 log files, including querying, summarizing, comparing runs, detecting anomalies, and correlating logs with ROS2 bag topics.
Why this server?
Provides ROS 2 integration for controlling the Bumi humanoid robot, including mission execution, vision detection, and sensor data via rosbridge.
Why this server?
Provides tools for controlling robots in ROS 2 environments, including listing and publishing topics, calling services, sending action goals, and launching ROS GUI tools.
Why this server?
Provides tools for interacting with remote ROS2 robotics applications, enabling inspection and control of topics, services, actions, parameters, TF transforms, and automated verification suites.
Why this server?
Integrates directly with a ROS 2 (Jazzy) autonomy stack on a live robot or simulator: reads camera, registered scan, terrain map, and state estimation topics, and publishes map-frame waypoints, 3D object markers, and numerical counting answers to the challenge topics.
Why this server?
Enables robot movement control by sending linear and angular velocity commands to ROS-enabled robots through the rosbridge WebSocket interface
Why this server?
Provides tools to read ROS2 topics, call services, get robot status and GPS telemetry, and wrap telemetry into verifiable ai2robot proof bundles. Supports both mock (simulated) and real ROS2 modes via a Python sidecar.
Why this server?
Provides read-only inspection of ROS2 graphs, topics, QoS policies, and recorded bag files. Enables AI agents to discover ROS2 topics, sample messages, analyze .mcap/.db3 recordings, inspect DDS participants and endpoints, and debug QoS mismatches between readers and writers.