Robot Development
12 tools
Robot development platforms cover operating systems (ROS/ROS 2), simulators (Gazebo, Isaac Sim), dev kits (NVIDIA Jetson) and learning platforms. ROS 2 is the de facto standard — learning it means speaking the industry's common language. Suggested path: ROS 2 basics + Gazebo simulation (zero hardware cost), then a Jetson kit or arm for hands-on validation.
Open-RMF
Robot Development
Open-source platform for multi-robot fleet coordination
Husarion
Robot Development
Hardware and software solutions for building ROS-based robots.
The Construct
Robot Development
Learn ROS and robotics through online courses and simulations.
Formant
Robot Development
Cloud platform for managing and scaling robot fleets.
Foxglove
Robot Development
Visualize and debug robotics data in real time.
MoveIt
Robot Development
Open-source software for robot motion planning and manipulation
CoppeliaSim
Robot Development
Versatile robot simulation framework with advanced physics
Webots
Robot Development
Open-source robot simulator for research and education
ROS (Robot Operating System)
Robot Development
The open-source backbone of robotics
Hugging Face LeRobot
Robot Development
Open-source robot learning for everyone
Gazebo
Robot Development
Classic open-source robot simulator
NVIDIA Isaac Sim
Robot Development
Photorealistic robot simulation on Omniverse
FAQ
How to start robot development from zero?
Path: Python/C++ basics → official ROS 2 tutorials → navigation/grasping demos in Gazebo → a Jetson Orin or Raspberry Pi for hardware. You can start with zero hardware cost.
ROS or ROS 2?
Go straight to ROS 2. ROS 1 is end-of-life (Noetic was the last release); all new projects and job requirements are ROS 2.
Can simulation replace real-robot testing?
It covers 70-80% of algorithm validation (navigation, planning, vision), but sensor noise and mechanical tolerances — the sim-to-real gap — require real hardware.