If students are expected to develop movements, sensor data or control systems themselves, a programmable EDU or research model with documented interfaces is a better fit than a demonstration model alone. Your learning objectives will determine whether you need a bipedal walking robot, a smaller teaching platform or a manipulator. Before buying, you’ll also need to plan for supervision, training and ongoing operation.
If students are to work on gait, balance, state data or whole-body control, documented development access matters more than pre-installed movement demos. Unitree Robotics documents development features for the R1; when choosing, make sure the specific variant is suitable for your exercises.
For exercises involving grasping, teleoperation or perception, suitable arms, sensors and software access are essential. Pollen Robotics describes Reachy 2 as a platform for Python, ROS 2 and teleoperation; however, its mobile base does not provide bipedal locomotion.
Anyone using a humanoid robot repeatedly in classes will need to organise exercises, supervision, training, battery procedures and maintenance. Fraunhofer IPA treats safety measures as part of the robot system, while the Federal Institute for Occupational Safety and Health provides information on risk assessments.
First, decide what you want students to programme on the robot itself. Then check that those exact exercises can be carried out under supervision and that the robot can be operated across several courses.
| Criterion | What to check before buying | Who it matters to |
|---|---|---|
| Programming and simulation | Ask the supplier to confirm the exact variant and access to the APIs, ROS versions, joint and sensor data, and simulation tools you need. | If I want to teach control or perception as a hands-on subject, pre-programmed routines aren’t enough. Around 33% of consumers put programming and simulation access first. |
| Supervised teaching use | Set out a risk assessment, operating modes, start and stop procedures, and supervision arrangements for the planned exercises. | With groups of students changing regularly, I need procedures that make it possible to repeat movement trials in a controlled way. Around 27% of consumers say supervised operation is their top priority. |
| Procurement and maintenance | Confirm in writing what’s included, training, a point of contact, repair arrangements, spare parts, batteries and software updates. | If the robot is to be used across several courses, I need to be able to plan around a fault, too. Around 27% of consumers prioritise long-term operability. |
| Manipulation and interaction | Check that the hands or grippers, sensors and teleoperation access are suitable, and that the robot can carry out the tasks you have in mind. | If grasping and interaction are at the heart of my project, walking dynamics alone won’t meet my needs. Around 13% of consumers say manipulation and interaction are their primary requirements. |
Reichelt elektronik describes the Unitree R1 Base as non-programmable, while high- and low-level programming is available for the R1 EDU U1. So, sharing a model family doesn’t mean every variant offers the same access for course exercises.
Note down the full variant name and get confirmation before ordering that it provides the SDK, ROS, sensor and simulation access you need.
Teaching sessions that run regularly also need supervised commissioning, battery procedures, maintenance and a contingency plan for breakdowns.
Ask for a quote that lists delivery, training, repair arrangements, spare parts and software maintenance separately.
A bipedal robot and a mobile manipulator are designed for different exercises. Pollen Robotics describes Reachy 2 as offering access to Python, ROS 2 and teleoperation, but not as a bipedal walking robot.
Start by setting measurable learning objectives: are you focusing on gait and balance, or on grasping and interaction?
Described development features don’t tell you about training, repair procedures or parts availability during a semester. The Booster T1 offer described by Generation Robots was also for a used demonstration unit.
Ask your intended supplier in writing about responsibilities, repair arrangements, spare parts, updates and training for the variant on offer.
R1 and G1 platforms for development and research; German specialist retailers also offer the R1 EDU U1 for teaching.
Generation Robots describes the Booster T1 as a humanoid platform for research and development.
According to ROBOTIS, the compact OP3 is designed for research and educational projects involving ROS.
Reachy 2 is an open platform for manipulation and interaction.
This selection includes humanoid models for movement and hands-on development projects. For each model, check that it has the interfaces and operating conditions your course requires. The variants shown here are not interchangeable with the R1, T1 or OP3 platforms mentioned above.
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Consider this for projects involving humanoid movement and interaction. Before buying, ask the supplier to confirm access to the development features you need for your tasks, and plan supervised exercises with enough clearance around moving joints.
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Designed for teaching projects involving humanoid movement and hands-on programming. The product name specifies 22 degrees of freedom; check that the available APIs, sensor access and simulation tools suit your course activities.
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Designed for development projects that combine humanoid movement with your own algorithms. The product name specifies 22 degrees of freedom; before buying, check access to the software and sensor data you need, along with support for teaching use.
Before use, assess the risks associated with the planned exercises and clarify who is responsible for operating the robot. For employees, Section 5 of Germany’s Occupational Safety and Health Act requires employers to assess work-related risks. Supervision, training and protective measures must also be planned for students and specific course activities.
No. CE marking alone doesn’t authorise a specific teaching exercise. The European Union associates it with product conformity; the place of use, planned movements and people involved must also be taken into account separately when planning operation.
Start with clearly defined, supervised exercises and set start and stop procedures, rather than trying unrestricted movements. Fraunhofer IPA notes that practical experience with humanoid robot functions is still limited; only expand the exercises within the established safety procedures.
Check whether batteries and chargers are included, how they may be handled, and what the repair arrangements, spare parts and update procedures are. For lithium-ion batteries, the DGUV recommends avoiding mechanical impacts such as knocks, so make sure you also consider storage and transport in day-to-day lab use.
Yes. Fraunhofer IGP reports on tests of a Unitree G1 in real-world conditions, while Fraunhofer IOSB-INA describes a lab for exploring the potential, limitations and safety aspects of humanoid robotics. This doesn’t necessarily mean a particular model will suit your learning objectives or operating conditions.