Imagine trying to tighten bolts and run inspections inside the cramped belly of an airplane — it's exhausting, awkward, and sometimes physically impossible for a person to reach. Regular robots on wheels or rails can't get in there either. COMANOID built a humanoid robot that can brace itself against walls and structures to squeeze through narrow passages and do assembly work right next to human workers. Think of it like a robot that moves the way a rock climber does — using multiple contact points for balance instead of needing a flat floor.
Aircraft assembly involves many tasks in extremely tight fuselage cavities that are physically exhausting or impossible for human workers. Traditional wheeled or rail-mounted robots simply cannot access these constrained spaces. This creates a bottleneck where critical assembly operations remain manual, slow, and prone to ergonomic injuries.
The consortium delivered 15 project outputs including a final demonstrator with technology recommendations. The demonstrator integrated multi-contact planning and control, visual-haptic servoing, perception and localization systems, and human-robot safety measures into a humanoid robot capable of operating in constrained aircraft assembly environments.
If you are an aircraft manufacturer dealing with assembly tasks in tight fuselage cavities that are laborious or impossible for wheeled robots — this project developed a humanoid robot system with multi-contact planning that can navigate constrained spaces and work alongside human operators. The final demonstrator was validated against real use cases provided by Airbus Group.
If you are a shipbuilder struggling with inspection and assembly in cramped engine rooms and hull compartments — this project developed multi-contact locomotion and visual-haptic control that lets a humanoid robot move through narrow passages using walls and structures for support. The approach was designed specifically for non-uniform confined structures shared with human workers.
If you are an automotive manufacturer looking to automate tedious tasks inside vehicle cabins or underbody areas where traditional robots cannot reach — this project developed perception, localization, and human-robot safety systems for collaborative robotics in tight spaces. The consortium of 6 partners across 3 countries produced 15 deliverables including a final demonstrator.
The project did not publish per-unit or deployment cost data. As a Research and Innovation Action (RIA), COMANOID focused on proving technical feasibility rather than commercial pricing. Any cost estimate would need to come from direct discussion with the consortium partners.
The project produced a final demonstrator validated against real Airbus assembly use cases, but full production-line deployment was not within scope. Scaling would require additional engineering for reliability, certification, and integration with existing manufacturing execution systems.
IP is distributed among the 6 consortium partners, with CNRS as coordinator. The consortium includes 3 research organizations and 2 universities across France, Germany, and Italy. Licensing terms would need to be negotiated directly with the relevant IP holders.
Human-robot safety was one of the core research challenges addressed in the project. The system integrates advanced visual-haptic servoing and perception to detect and respond to the presence of human workers in shared tight spaces. Based on available project data, specific safety certification levels were not published.
The project ended in 2018 and produced a final demonstrator with technology recommendations. The objective explicitly states the goal was to assess how far the state-of-the-art stands from deployment-ready technology. This places it at the advanced prototype stage, not yet production-ready.
The project focused on the robot's core capabilities — multi-contact planning, visual servoing, perception, and localization — rather than factory IT integration. Connecting to existing manufacturing execution systems would be a necessary next step for any deployment scenario.
The COMANOID consortium is research-heavy: 3 research organizations and 2 universities out of 6 total partners, with only 1 industry participant and zero SMEs — giving it a 17% industry ratio. This signals a technology-push project rather than a market-pull one. The single industry partner is effectively Airbus (referenced as providing real use cases in the objective), which gives the results credibility for aerospace applications but limits direct commercialization pathways. All 3 countries (France, Germany, Italy) are major aerospace manufacturing nations, which is well-aligned with the target application. A business looking to adopt this technology would likely need to engage CNRS (the French coordinator) as a starting point and potentially bring in a robotics systems integrator not currently in the consortium.
CNRS (Centre National de la Recherche Scientifique), France — the largest public research organization in Europe. Look for the COMANOID project lead in their robotics division.
Want an introduction to the COMANOID team to discuss licensing the multi-contact robotics technology for your manufacturing environment? SciTransfer can arrange a direct connection.
