AgileX LIMO COBOT

In most teaching laboratories the robot arm stays bolted to a bench, while the mobile robot drives around with nothing to hold. Students learn to plan a path or to plan a grasp, but rarely both in the same exercise, and the most instructive problems, such as reaching for an object the robot has only just driven up to, fall into the gap between two separate kits. The AgileX LIMO COBOT closes that gap. It places a 6-DoF robotic arm on a mobile base and runs both from the same onboard computer, so that navigation, perception and manipulation can be taught, tested and assessed as one system rather than as three unrelated topics.

Robots Europa, based in Dublin, supplies the AgileX LIMO COBOT to universities, colleges, training centres and competition teams across the European Union and the DACH region. Robots Europa prepares the quotation, arranges delivery to your institution and remains your point of contact for technical support once the robot is in use.

Background

From mobile base to mobile manipulator

Mobile manipulators combine two disciplines that robotics courses have traditionally kept apart. A wheeled platform has to know where it is, build a map of its surroundings and avoid what stands in its way; an arm has to identify a target and move precisely enough to pick it up. When the two are joined, every decision depends on the other: the base must stop where the arm can reach, and the arm must cope with the fact that its own reference point has moved. This interplay is precisely what makes the class of machine valuable for teaching, because it forces students to think about a robot as an integrated system rather than a collection of modules.

The LIMO COBOT belongs to the LIMO line of mobile robots from AgileX, a brand whose wider range of platforms and kits is presented in our AgileX category. Within that range, this model is the configuration that adds manipulation to the mobile base, turning a navigation platform into a robot that can act on what it finds.

Arm, computer and software on one platform

Three elements define the LIMO COBOT. The first is the arm: the robot integrates a Mycobot 280 M5, a 6-DoF robotic arm that supports various end-effectors, allowing precise mobile grasping for a range of task requirements. The second is the computer: an Nvidia Orin Nano provides the onboard processing for the robot's autonomous features. The third is the software environment: the platform supports ROS and Gazebo and is compatible with Python and C++, the languages most students and instructors already work in.

Together these allow the LIMO COBOT to support navigation, obstacle avoidance, mapping, mobile grasping and visual recognition. The base itself uses a Four-Wheel Differential Steering Mode, which AgileX designed to make driving on any surface easy, so that exercises can move from a clean laboratory floor to a more varied setting without changing the hardware.

Technical Specifications

Specifications are as published by the manufacturer and are confirmed against the datasheet at quotation.

The manufacturer has not published the battery charging time, the IP rating, the operating temperature, the wireless connectivity or the maximum arm payload at full extension; these are confirmed at quotation.

What makes a mobile manipulator different from a fixed robot arm?

A fixed arm works in a known, unchanging workspace. Its base never moves, the objects it handles are usually presented in predictable positions, and the programming challenge is largely one of trajectory and accuracy. Put the same arm on a mobile base and the problem changes character. The robot must first navigate to the object, using mapping and obstacle avoidance to get there safely, then recognise the target visually and only then plan a grasp from wherever it has come to rest.

The LIMO COBOT is built for exactly this sequence. Because the Mycobot 280 M5 arm, the Four-Wheel Differential Steering Mode base and the Nvidia Orin Nano computer are integrated from the outset, an instructor does not need to engineer the mechanical and electrical connection between a separate arm and a separate rover before teaching can begin. The time saved goes into the substance of the course: localisation, perception, motion planning and the coordination between them.

There is also a difference in what students take away. Working on a fixed arm teaches manipulation; working on a mobile manipulator teaches how real service and logistics robots have to reason, with uncertainty about position and a workspace that is never quite the same twice. For institutions that want their graduates to understand complete autonomous systems, that distinction matters.

Can the AgileX LIMO COBOT be programmed with ROS and simulated in Gazebo?

Yes. The LIMO COBOT supports both ROS and Gazebo, and it is compatible with Python and C++. In practice this means a course can be organised around the toolchain that dominates academic and research robotics. Students can write and test behaviour in a Gazebo simulation, where mistakes cost nothing, and then move the same approach onto the physical robot to see how it performs against real sensors and real surfaces.

The choice of languages is equally deliberate. Python lowers the barrier for newcomers and suits rapid experimentation with recognition and grasping routines, while C++ serves students who need to work closer to performance-critical code. A single platform that accommodates both allows one robot fleet to serve introductory modules and advanced projects alike, which simplifies procurement and keeps laboratory practice consistent from one year group to the next.

Who is the AgileX LIMO COBOT for?

The manufacturer positions the LIMO COBOT for education, competitions and training, and each of these audiences gains something specific. University and college departments teaching robotics, mechatronics or computer science can use it to bring navigation and manipulation into one practical module, giving students hands-on experience with ROS on hardware that behaves like a full autonomous system. Laboratory managers benefit from a single integrated robot rather than an arm and a rover that must be maintained and configured separately.

Competition teams are a natural fit as well. Many robotics challenges reward machines that can find, identify and handle objects, and a platform that already combines mapping, obstacle avoidance, visual recognition and mobile grasping lets a team concentrate on strategy and software rather than on building a chassis.

Training providers, including vocational centres and corporate upskilling programmes, can use the LIMO COBOT to introduce engineers to autonomous mobile manipulation before they work with larger industrial equipment. Where a project calls for a different arm or a heavier-duty configuration, our Cobots category presents the wider choice, and Robots Europa will gladly advise on the most suitable option.

What is the AgileX LIMO COBOT used for?

1. Autonomous navigation coursework – students programme the robot to plan and follow routes through a laboratory or classroom.
2. Mapping and obstacle avoidance – learners build maps of their environment and teach the robot to move safely around what it detects.
3. Mobile grasping exercises – the robot drives to an object and picks it up with its arm, combining locomotion and manipulation in one task.
4. Visual recognition projects – recognition routines allow the robot to identify targets before deciding how to act on them.
5. Robotics competitions – teams use the integrated platform to tackle find-and-fetch challenges without building their own hardware.
6. Simulation-to-hardware training – behaviour developed in Gazebo is transferred to the physical robot to show how simulation meets reality.

Pricing and Availability

Robots Europa supplies the AgileX LIMO COBOT on a quotation basis, so that the offer reflects the configuration, quantity and end-effectors your institution requires. Delivery, customs and support are arranged together with the quotation, giving you a single, clear proposal for your organisation. To receive a tailored offer for your laboratory, course or competition team, please use the quotation request available on this page.

Frequently Asked Questions

Which robotic arm does the AgileX LIMO COBOT use?

The LIMO COBOT integrates a Mycobot 280 M5, a 6-DoF robotic arm that supports various end-effectors for precise mobile grasping.

Which computer runs the AgileX LIMO COBOT?

The robot's autonomous features run on an onboard Nvidia Orin Nano. It handles the processing for navigation, mapping, obstacle avoidance, visual recognition and grasping.

Which programming languages does the robot support?

The LIMO COBOT is compatible with Python and C++. Both can be used within its ROS environment.

Can I develop in simulation before using the real robot?

Yes, the platform supports Gazebo alongside ROS. Students and developers can therefore test behaviour in simulation before running it on the physical robot.

How does the mobile base steer?

The base uses AgileX's Four-Wheel Differential Steering Mode, designed to make driving on any surface easy.

What are the IP rating and battery charging time?

The manufacturer has not published the IP rating, battery charging time, operating temperature or wireless connectivity. Robots Europa confirms these details with your quotation.

Where can I buy the AgileX LIMO COBOT and what does it cost?

You can buy the AgileX LIMO COBOT from Robots Europa, which supplies customers across the EU and the DACH region. The cost depends on your configuration, so please request a quotation and we will prepare an offer including delivery and support.

Summary

The divide between a robot that moves and a robot that grasps has long shaped how robotics is taught, with navigation and manipulation treated as separate subjects on separate machines. The AgileX LIMO COBOT removes that divide by combining a Mycobot 280 M5 arm, an Nvidia Orin Nano computer and a mobile base with Four-Wheel Differential Steering Mode in one platform that speaks ROS, works with Gazebo and accepts Python and C++. For departments, competition teams and training providers who want learners to understand an autonomous robot as a whole, from the map it builds to the object it lifts, it offers a coherent place to begin. Robots Europa supplies, delivers and supports it across the EU and the DACH region, and for your quotation this page is the starting point.