WE DRIVE YOUR VEHICLE. EVERYWHERE.
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PRECISE | RELIABLE | EFFICIENT
Whether you run endurance tests on a chassis dynamometer or execute dynamic maneuvers on proving grounds, repeatability decides. With our robot systems you control
vehicles reproducibly and safely. Depending on the setup, speed accuracy up to ±0.5 km/h and a lateral deviation tolerance around ±2 cm can be targeted. This helps you meet strict WLTP and ADAS
requirements and turn test time into reliable comparable data.
Our portfolio, robot systems built for every test task
One provider, one modular architecture, multiple specialised systems. In practice, teams pair robot drivers for repeatable cycles with steering robots for stable
lateral guidance and proving‑ground driving systems for automated outdoor maneuvers. Actuators and robot shifters extend this setup where pedals and gear changes must stay consistent. Modular
hardware plus standardised, or manufacturer‑specific, interfaces support integration into existing processes across the full lifecycle.
1) Robot Drivers, repeatable cycles on chassis dynamometers
Our Robot Drivers enable computer‑controlled driving with humanlike drive styles and high repeatability.
This supports emission testing, mileage accumulation, climate tests and correlation work on chassis dynamometers.
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Fast installation without vehicle modification
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Suitable solutions for cars, trucks and motorcycles
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Profound knowledge for cycles beyond WLTP, EPA and FTP‑75 contexts
By aligning cycles, tolerances, driving styles, and by implementing data interfaces, you can quickly produce results comparable across teams and test cells.
2) Steering Robots, consistent lane keeping for ADAS maneuvers
For proving ground application, lateral control must stay within tight boundaries. A common example is keeping test speed within ±0.5 km/h and the transverse
deviation to the target trajectory within ±2 cm. Our Steering Robots support scenarios such as AEB, lane keeping and lane change,
with millisecond level synchronisation to other robotic modules.
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Compatible with typical AEB and lane keeping scenarios
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Quick installation thanks to clamping concept
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Adaptive to all steering wheel designs and sizes including yoke design
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Airbag remaining active for safety driver
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No wind screen usage as a support
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Prepared for vehicle dynamics maneuvers such as Fishhook or J‑Turn
Defined boundary conditions, safety assessments, maneuvers, tolerances and stop strategies are consistent across repeated runs.
3) Actuators, pedal automation with defined force and feedback
In many setups, longitudinal control depends on reliable accelerator and brake actuation. Our actuator portfolio supports fast and robust installation on or below
the driver seat and with repeatable set-point control.
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Brake actuation forces up to 2.000 N (depending on setup)
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Fail-safe concepts with mechanical return positions (model dependent)
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Expandable actuator configurations for additional functions
If EMC compatibility is part of the test requirement, our actuators for EMC testing are the relevant
product category.
4) Robot Shifters, gearbox cycles with defined timing
Repeatable shift execution is critical for powertrain and durability testing. Our Robot Shifters are
designed for controlled shifting on test stands and can be configured with options such as additional measurements and interfaces.
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Solutions for transmission and powertrain test stands
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Controlled actuation with defined motion and force
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Options depending on test setup and integration needs
In many test environments, a Robot Shifter is linked with actuator modules for clutch and pedal functions to keep full sequences stable.
5) Proving ground driving systems, automated driving on test tracks
Outdoor test programmes benefit when the vehicle can be guided automatically and safely. Our proving ground driving systems cover driverless or hybrid operation, depending on the scenario and safety concept.
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Configurations for cars and commercial vehicles
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Safety features with software and hardware watchdogs (system dependent)
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Integration interfaces for fleet management and synchronizations with soft-targets.
Drive-by-wire designed vehicles can also be controlled as would they be actuated controlled via SDrive.
Further a pneumatical emergency brake actuator for driverless operation can be added to brake pedal actuator or as stand-alone e.g.
autonomous vehicles.
Software and accessories, the modular layer on top
A robot system becomes efficient when control, data and interfaces are consistent across environments. The DriverModule helps keep a consistent driver concept from simulation to proving ground. For practical integration and mounting, the accessories catalogue supports common sensor and device setups.
Contact us to discuss your robot system setup
If you want to increase your test quality, reduce variance and run repeatable WLTP or ADAS programms, let us discuss your use case. Call +49 (0) 7044 91561-0, email [email protected] or use
our contact form. Technical documents are available via Downloads.
FAQ, common questions about robot systems
Below you find concise answers to questions we often receive from test teams and engineering departments.
What are robot systems in vehicle testing?
Robot systems are vehicle mounted actuators and controllers that operate steering, pedals or shifting. They reduce driver influence, execute maneuvers repeatably and support comparable
measurement data across long test programmes, on chassis dynamometers and on proving grounds.
Which robot system families are available?
The portfolio includes Robot Drivers, Steering Robots, Actuators, Robot Shifters and Proving ground driving systems. These modules can be combined depending on vehicle type, test
environment and interface needs, and can be expanded step by step.
Why do ADAS and EuroNCAP tests benefit from robotic control?
Because strict criteria require stable longitudinal and latitudinal guidance. Examples include keeping test speed within ±0.5 km/h and the transverse deviation to the target trajectory
within ±2 cm. Robotic control helps maintain these limits repeatably across many runs.
How is safety handled in driverless proving ground setups?
Safety combines technical measures and process rules. Depending on the system, watchdog concepts, defined stop strategies and brake redundancy can be used. Clear operating procedures and
controlled test zones support safe and repeatable execution.
Where can we get support and documentation?
For documentation, use the Downloads area and the product pages for each module family. For technical support and service requests, our support path is available via the contact form, so
your team can provide system type, serial number and the current setup quickly.