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CENTAURO · Project

Telepresence Robot That Lets Workers Handle Disasters Without Being There

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Imagine a four-legged robot with a human-like upper body — like a mechanical centaur — that a human operator controls from a safe distance using a full-body suit. The operator sees, hears, and even feels what the robot touches, so they can open valves, connect hoses, or clear debris in places too dangerous for people. The team built this specifically for disaster zones like collapsed buildings or nuclear accidents, where sending humans in is either impossible or life-threatening. Think of it as giving rescue workers a remote-controlled body that can climb stairs, walk over rubble, and use regular human tools.

By the numbers
EUR 4,124,915
EU funding for developing the telepresence disaster robot
8
consortium partners across 3 countries
30
total project deliverables including 10 demonstration items
4
legged robot base for rough terrain navigation
3.5 years
project duration (April 2015 – September 2018)
The business problem

What needed solving

Disaster response, nuclear decommissioning, and hazardous industrial maintenance all share one critical problem: human workers cannot safely enter dangerous environments, yet current robots lack the dexterity to use standard tools or navigate complex indoor spaces. Companies spend heavily on specialized equipment and accept high risk to workers, while remote-controlled robots available today cannot climb stairs, handle debris, or perform two-handed tasks like connecting hoses or turning valves.

The solution

What was built

The team built a four-legged centaur-like robot with a human-like upper body, a full-body telepresence suit with haptic feedback for remote operators, a control station, a communication link, autonomous navigation and manipulation skills, and a simulation testbed. Deliverables include first prototypes and final integrated versions of both the robot and the operator control station, validated through structured end-user testing.

Audience

Who needs this

Nuclear decommissioning contractors handling radioactive facilitiesHazardous industrial inspection companies (chemical, petrochemical, offshore)Civil protection and disaster response agenciesMilitary EOD and CBRN defense unitsSpace agencies needing remote manipulation in hostile environments
Business applications

Who can put this to work

Nuclear Decommissioning & Waste Management
enterprise
Target: Nuclear facility operators and decommissioning contractors

If you are a nuclear decommissioning company dealing with hazardous environments where human workers face radiation exposure — this project developed a centaur-like telepresence robot with an anthropomorphic upper body capable of using unmodified human tools like valves and hoses. The robot navigates cluttered indoor environments including stairs, while the operator controls it safely from a remote station with haptic feedback. The EUR 4,124,915 project produced both first prototype and final integrated versions validated across increasingly complex test scenarios.

Industrial Inspection & Maintenance
mid-size
Target: Companies providing inspection services for hazardous industrial facilities (chemical plants, refineries, offshore platforms)

If you are an industrial inspection firm sending workers into confined spaces, toxic atmospheres, or structurally compromised facilities — this project built a robot system with four-legged locomotion for rough terrain and dexterous two-handed manipulation for complex tasks. The system includes autonomous navigation skills that reduce operator workload, plus augmented reality displays for situational awareness. An 8-partner consortium across 3 countries tested the system against end-user requirements with increasingly complex benchmarks.

Emergency Response & Civil Protection
enterprise
Target: Civil protection agencies and disaster response equipment suppliers

If you are a disaster response agency struggling with the limitations of current rescue robots that cannot navigate collapsed buildings or handle complex manual tasks — this project created a full-body telepresence system where operators receive visual, auditory, and haptic feedback. The CENTAURO robot was specifically designed to enter man-made environments cluttered with debris and perform bimanual tasks like connecting hoses. The project delivered 30 deliverables including a complete integrated disaster-response system with communication link and simulation testbed.

Frequently asked

Quick answers

What would it cost to acquire or license this telepresence robot system?

Based on available project data, the total EU contribution was EUR 4,124,915 across 8 partners over 3.5 years. No commercial pricing or licensing terms are mentioned. As a research project from a university-led consortium, licensing would need to be negotiated directly with the coordinating university (Rheinische Friedrich-Wilhelms-Universität Bonn).

Can this robot system scale to industrial deployment?

The project produced first prototypes and final integrated versions of both the robot and control station, validated through increasingly complex test scenarios. However, this was a Research and Innovation Action (RIA) with 5 university partners and no SMEs — scaling to industrial production would require additional engineering and a manufacturing partner. The 25% industry ratio suggests limited commercial readiness.

Who owns the intellectual property and how can it be licensed?

IP from this EU-funded project (RIA scheme) is typically owned by the consortium partners who generated it, led by Rheinische Friedrich-Wilhelms-Universität Bonn in Germany. With 5 universities and 1 research organization in the consortium, IP is likely distributed across academic institutions. Licensing terms would need to be negotiated with the relevant partners.

How does the robot handle communication delays in real disaster scenarios?

The project specifically addressed communication latencies and bandwidth limitations by developing autonomous robot skills for routine navigation and manipulation tasks. This allows taking the operator partially out of the control loop when communication quality degrades. The consortium delivered a dedicated communication link between operator station and robot.

What tasks can the robot actually perform with its hands?

According to the project objective, the robot uses an anthropomorphic upper body to perform complex bimanual manipulation tasks using unmodified human tools — specifically mentioned are connecting a hose and opening a valve. The upper-body haptic feedback suit lets operators feel what they are manipulating remotely.

What environments has this been tested in?

The project designed tests based on end-user requirements with increasingly complex evaluation criteria. The robot was built to navigate man-made environments including building interiors and stairs cluttered with debris and partially collapsed structures. A simulation Virtual Testbed was also delivered for testing scenarios before physical deployment.

Is this technology ready to deploy today?

The project ended in September 2018 and delivered final integrated versions of both the robot and control station. However, as a university-led research project, the system would need further engineering, ruggedization, and certification before operational deployment. No evidence of commercial deployment or follow-up industrialization is available in the project data.

Consortium

Who built it

The CENTAURO consortium of 8 partners across Germany, Italy, and Sweden is heavily academic, with 5 universities and 1 research organization making up 75% of the team. Only 2 industry partners participated, and notably zero SMEs were involved — which signals this is deep research rather than near-market development. The coordination by Rheinische Friedrich-Wilhelms-Universität Bonn, a leading robotics research university, ensured strong technical capability but the lack of commercial partners means industrialization would require new partnerships. For a business looking at this technology, the key takeaway is that the science is solid but you would need to bring manufacturing and integration expertise to move this toward a product.

How to reach the team

Rheinische Friedrich-Wilhelms-Universität Bonn, Germany — robotics research group

Next steps

Talk to the team behind this work.

Want to explore licensing this telepresence robot technology for your hazardous environment operations? SciTransfer can connect you with the research team and help evaluate the fit for your use case.