The Best Free Tools & Platforms to Practise Robotics Skills in 2025/26

5 min read

Robotics is one of the fastest-growing industries in the UK and worldwide. From autonomous vehicles and warehouse automation to humanoid robots and robotic surgery, this field blends mechanical engineering, software development, and artificial intelligence.

For anyone hoping to enter the sector — whether as a robotics engineer, control systems developer, computer vision specialist, or roboticist in research — practical skills matter far more than theory alone. Employers want proof you can design, simulate, and test robotic systems.

The challenge is that real robots are expensive. Buying robotic arms, drones, or mobile platforms isn’t realistic for most learners. Fortunately, a wide range of free tools and platforms exist to let you practise robotics without costly hardware. These include open-source simulators, frameworks, middleware, and reinforcement learning environments.

This article explores the best free tools and platforms available in 2025 to help you practise robotics skills, build portfolio projects, and prepare for careers in this exciting field.

Why Practising Robotics Skills Matters

Robotics is a practical discipline. Textbooks can teach you kinematics, dynamics, and control theory, but until you’ve tested algorithms on robots — even virtual ones — you won’t grasp the challenges involved.

By practising with free robotics tools, you can:

  • Understand hardware–software integration: How sensors, actuators, and control algorithms interact in real systems.

  • Experiment safely: Test algorithms in simulators before risking hardware damage.

  • Work with real-world constraints: Noise, calibration, limited power, and unpredictable environments.

  • Build demonstrable projects: Portfolios showing your ability to solve robotic tasks stand out to employers.

  • Learn industry-standard frameworks: Skills in ROS, Gazebo, or MoveIt are directly transferable to professional robotics roles.


1. Webots

Webots is one of the most widely used free robotics simulators. It is fully open-source and cross-platform.

Key Features

  • Models mobile robots, manipulators, drones, and humanoids.

  • Includes a library of sensors and actuators.

  • Supports physics-based simulation for realistic testing.

  • Can import CAD and URDF models.

Why It’s Useful

Webots is beginner-friendly but powerful enough for advanced projects. You can practise everything from line-following robots to quadrotor flight and robotic arm manipulation.


2. ROS (Robot Operating System)

ROS is the most important free framework in robotics. It isn’t an operating system but rather a collection of tools, libraries, and middleware.

Key Features

  • Communication framework for sensors, actuators, and controllers.

  • Rich ecosystem of packages for SLAM, navigation, manipulation, and perception.

  • ROS 2 adds real-time and multi-robot support.

Why It’s Useful

ROS is the industry standard. If you want a robotics job in the UK, ROS experience will often be listed in job descriptions.


3. Gazebo

Often paired with ROS, Gazebo is a free physics-based simulator.

Key Features

  • Realistic simulation of robots in 3D environments.

  • Supports sensors such as LIDAR, cameras, and GPS.

  • Works seamlessly with ROS.

Why It’s Useful

Gazebo lets you test ROS packages without real hardware. You can practise mapping, navigation, or manipulation tasks entirely in simulation.


4. Open-RMF (Open Robotics Middleware Framework)

Open-RMF extends ROS to multi-robot coordination.

Key Features

  • Simulates and manages fleets of robots.

  • Useful in warehouses, hospitals, and logistics environments.

  • Open-source and free to use.

Why It’s Useful

Fleet management is a growing area in robotics, and practising with Open-RMF shows employers you understand large-scale systems.


5. NVIDIA Isaac Sim

Isaac Sim is a robotics simulator from NVIDIA, built on the Omniverse platform.

Key Features

  • High-fidelity physics simulation.

  • Synthetic data generation for computer vision.

  • Supports reinforcement learning pipelines.

Why It’s Useful

The free tier lets you experiment with advanced simulation and perception, preparing you for industry projects.


6. MoveIt

MoveIt is an open-source motion planning framework.

Key Features

  • Tools for manipulation, motion planning, and collision avoidance.

  • Integrates with ROS and Gazebo.

  • Supports robotic arms and complex multi-joint systems.

Why It’s Useful

If you want to specialise in robotic manipulation, MoveIt is the go-to free tool for practising trajectory planning and control.


7. MRPT (Mobile Robot Programming Toolkit)

MRPT provides algorithms and tools for mobile robotics.

Key Features

  • SLAM (simultaneous localisation and mapping).

  • Path planning and navigation.

  • Vision and sensor integration.

Why It’s Useful

MRPT allows you to practise core mobile robotics skills like mapping and localisation.


8. AMBF (Asynchronous Multi-Body Framework)

AMBF is a real-time simulation framework.

Key Features

  • Models rigid, soft, and multi-body systems.

  • Supports haptics and advanced dynamics.

  • Used in research environments.

Why It’s Useful

Great for those interested in medical robotics, haptics, or advanced simulations.


9. RoboGym

RoboGym combines reinforcement learning with robotics simulation.

Key Features

  • Distributed reinforcement learning environments.

  • Focuses on sim-to-real transfer.

  • Open-source and free to use.

Why It’s Useful

It’s an excellent way to practise reinforcement learning in robotics, an area of rapid growth.


10. PyCub

PyCub is a Python framework for humanoid robotics simulation.

Key Features

  • Humanoid modelling and control.

  • Exercises in perception, control, and locomotion.

  • Beginner-friendly.

Why It’s Useful

It’s a practical tool for experimenting with humanoid robotics without expensive hardware.


Vision & Perception Tools

Robotics relies heavily on perception. Free tools for practising include:

  • OpenCV: Computer vision library for image processing.

  • Point Cloud Library (PCL): For 3D data and object recognition.

  • AprilTags / ArUco: Marker-based localisation.

Practising vision algorithms prepares you for autonomous robotics and industrial applications.


Beginner Hardware + Free Software

While this article focuses on free software, combining it with inexpensive hardware can deepen your skills.

  • Raspberry Pi for basic robotics projects.

  • Arduino for controlling motors and sensors.

  • Low-cost robotic kits that integrate with ROS or Python.

Using simulators first, then testing on affordable hardware, builds strong transferable skills.


Project Ideas to Build Your Portfolio

Here are practical project ideas using the free tools above:

  1. Autonomous Navigation: Use ROS and Gazebo to create a robot that maps and navigates a maze.

  2. Pick-and-Place Robot Arm: Use MoveIt with a simulated robotic arm to perform grasping tasks.

  3. Reinforcement Learning in Robotics: Train a simulated robot in RoboGym to perform locomotion.

  4. Humanoid Control: Use PyCub to simulate walking or object interaction.

  5. SLAM Project: Use MRPT to implement a SLAM algorithm in simulation.

Document these projects with code, visuals, and explanations. Hosting them on GitHub will strengthen your CV.


Communities & Free Learning Resources

Robotics communities can accelerate your learning:

  • ROS Discourse and Answers: Forums for troubleshooting and knowledge sharing.

  • Webots and Gazebo communities: Active open-source contributors.

  • GitHub projects: Explore repositories to learn from others’ code.

  • UK robotics societies and meetups: Great for networking and collaboration.

Free learning resources include MOOCs, YouTube tutorials, and university lecture notes. Many universities offer robotics courses in audit mode at no cost.


Roadmap: How to Learn Robotics with Free Tools

  1. Beginner Stage

    • Start with Webots to simulate simple mobile robots.

    • Use OpenCV to experiment with computer vision basics.

  2. Intermediate Stage

    • Move into ROS and Gazebo for integrated robotics projects.

    • Experiment with SLAM and navigation using MRPT.

  3. Advanced Stage

    • Add MoveIt for manipulation tasks.

    • Explore reinforcement learning with RoboGym.

    • Experiment with Isaac Sim for high-fidelity simulation.

By following this roadmap, you can steadily progress from simple projects to advanced research-level simulations.


Final Thoughts

Robotics is a field where practice matters. Employers in the UK want to see evidence that you can design, simulate, and deploy robotic systems. Thankfully, with free tools like Webots, ROS, Gazebo, MoveIt, MRPT, AMBF, RoboGym, and PyCub, you can practise almost every aspect of robotics without needing expensive hardware.

By experimenting with simulators, learning middleware like ROS, and building portfolio projects, you’ll stand out in the job market. Combine this with community engagement and consistent practice, and you’ll be well-prepared for a career in robotics.

So download one of these tools, start a project, and begin your journey into robotics today.

Related Jobs

£41,200 – £61,800 pa

Robotic Startup Specialist

The role involves driving the adoption of Medtronic’s HUGO™ robotic-assisted surgery system within hospitals across the UK and Ireland. As a start-up specialist, you will lead training for surgeons and clinical staff, support operating room integration, and use change management techniques to ensure successful program implementation. The position requires extensive collaboration with hospital stakeholders and field service engineers to achieve operational self-sufficiency in robotic surgery programs.

Medtronic logo

Medtronic

Manchester, United Kingdom

On-site Permanent

Robotics Integration Engineer – End-Effectors & UMI

This role involves integrating and testing robotic end-effectors such as grippers, actuators, and sensors, ensuring they function reliably within humanoid robot systems. The engineer will build prototypes, design test rigs, conduct performance evaluations, and perform root cause analysis on hardware failures. They will work across mechanical, electrical, and software domains to debug issues and provide feedback to development teams, using data to inform component selection and system improvements.

Humanoid

London, United Kingdom

On-site Permanent

Robotics Production Team Lead

Lead a team of technicians in the assembly, rework, and repair of advanced humanoid robots, ensuring high-quality electro-mechanical integration and rapid iteration. Drive team culture, troubleshoot build issues across mechanical and electrical systems, and collaborate closely with engineering and test teams during first-article builds and design changes. Operate in a fast-paced environment with evolving designs and urgent timelines.

Humanoid

London, United Kingdom

On-site Permanent

Robotic Test Engineer II

This role involves executing and automating software validation tests on humanoid robots, comparing simulation with real-world performance, and building reliable metrics pipelines for software releases. The engineer will run regression suites, support policy evaluations, and ensure data consistency across test environments. It requires hands-on work with robotics systems, Python scripting, and ROS2, bridging CI/CD with physical robot testing.

Humanoid

London, United Kingdom

On-site Permanent

Robotics Simulation & Control Engineer

Design and validate next-generation humanoid and wheeled robot platforms using physics simulation and reinforcement learning. Develop tools to evaluate locomotion, manipulation, and dynamic performance before hardware deployment, and maintain canonical robot models used across simulation and control systems. Collaborate with cross-functional teams to inform robot architecture, actuator selection, and control strategies through quantitative simulation-based analysis.

Humanoid

London, United Kingdom

On-site Permanent

Robotics Learning Engineer

This role focuses on developing and refining robot manipulation capabilities using applied deep learning and real-world testing. The engineer will train policies via behaviour cloning and reinforcement learning, improve data quality, and collaborate with simulation, teleoperation, and hardware teams to enhance performance and transferability from digital twin to physical robot. The position requires hands-on robotics experience and strong practical deep learning skills to iterate on models and systems in a fast-moving environment.

Humanoid

London, United Kingdom

Further reading

Dive deeper into expert career advice, actionable job search strategies, and invaluable insights.

Hiring?
Discover world class talent.