Press release
7/23/2026

From Screen to Track: How Simulation helped Shape the Bugatti Tourbillon

Molsheim

Long before a prototype ever turns a wheel, the character of a hypercar is already being shaped: on a computer, in a simulator rig, and later inside a full-motion simulator. In the latest episode of the 'A New Era' docuseries, Bugatti’s development team shows how simulation has become one of the most powerful tools in refining the driving dynamics of the marque’s latest hypercar, the Tourbillon, enabling greater depth of development and refinement in a shorter timeframe while sharpening every detail of how the car behaves.

Long before the Bugatti Tourbillon took its first test drives, the development process began in a virtual environment, as the latest episode of ‘A New Era’ reveals.
The Tourbillon’s virtual journey began at the Campus in Zagreb, Croatia.
The first test data came from runs of the newly developed V16 engine on test benches in several countries.
Engineers at Bugatti combined this information with additional data on the chassis and other systems to create the first simulations of the Tourbillon.
Enrico Talarico, Vehicle Dynamics Manager at Bugatti Rimac, and his team use this data on the driving simulator in Zagreb, where the virtual model is tested on a variety of tracks.
For Tomislav Šimunić, Head of Vehicle Dynamics at Bugatti Rimac, testing on the driving simulator is essential for collecting large volumes of vehicle data in a short period, making the development process as efficient as possible.
At test facilities such as the Nardò Technical Center, data from the simulator is compared with real-world driving data to continuously improve the accuracy of the simulations.
The next step sees the Bugatti team testing the latest results in a full-motion simulator, as shown here with the simulation experts at VI-grade in Italy.
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The process begins virtually, long before any physical car exists. Test bench data from the engine, along with information from the suspension's kinematics and compliance, is fed directly into a virtual model of the Tourbillon. As development matures, engineers validate the same responses on the virtual model against the real one, continuing all progress in parallel with the physical build.

To validate this data during the early stages of development, the team moves to Bugatti's own driving simulator, where early setups can be explored and refined in a fraction of the time required for physical testing, without depending on weather, track availability, or tire wear, and with 100% repeatable data from every run.

"Testing on the dynamic simulator is very, very valid for us because we can try different setups in a super short timeframe. We can literally travel between the Nürburgring Nordschleife in Germany and Nardò in the south of Italy in a couple of minutes."

Miroslav Zrnčević

Chief Test and Development Driver at Bugatti Rimac

With early setups explored virtually, the team moves to Nardò for real-world testing, gathering experimental data that is used to correlate and validate the virtual models before returning to the simulator to confirm the improvements.

"We basically performed some experimental tests at Nardò. We gathered a lot of experimental data with which we correlated our models. And then we are here at the driving simulator, in the very same place, performing validation to see whether the models are better correlated and supporting the next development steps."

Enrico Talarico

Vehicle Dynamics Manager at Bugatti Rimac

Given the extreme performance envelope of the Tourbillon, with a top speed of 445 km/h, ensuring stability across every conceivable condition is non-negotiable. The Bugatti team runs through a series of scenarios: highway stability and lane-change response, country-road ride quality with dampers, torque vectoring, steering and ABS all under evaluation, and – on a larger, full-motion simulator from simulation specialist VI-grade in Italy – the demands of the Nürburgring Nordschleife itself.

Here, the focus shifts to fine details: how elastic kinematics and suspension bushings influence the car through the first phase of a corner, and how it reacts as it is thrown by bumps mid-turn; all in search of the calmest, most connected behavior possible. The immersion offered by the full-motion rig is critical to making this testing meaningful, allowing drivers to fully commit to scenarios that would be far riskier to explore repeatedly on a real track.

For Bugatti, the value of this approach comes down to time.

"We are making very expensive vehicles, and even prototypes are very, very expensive. We need to make the most of the limited time we have with the cars in the field, so we use simulation and the driving simulator to gain valuable development time."

Tomislav Šimunić

Head of Vehicle Dynamics at Bugatti Rimac

Each virtual environment is built to isolate a different attribute of the car's performance: agility on country roads, high-speed stability on the autobahn, and, on the Nordschleife, the full combination of both, along with limit handling.

Crucially, this accelerates real-world testing rather than replacing it. Findings from the simulator continue to be validated and refined on the physical car in parallel, with data flowing in both directions: real-world results sharpen the virtual models, and virtual insights shape what the team looks for once they're back behind the wheel of the real car.

By combining computer-based simulation, Bugatti's own driving simulator, and the full-motion rig in Italy, the development team is able to explore radical setup changes, test at speeds and in scenarios that would be impractical to attempt repeatedly on track, and arrive at the physical testing phase with a far clearer picture of how the car should behave.

The result is a development process that is more precise, ensuring that by the time engineers get behind the wheel of the real car, the groundwork has already been laid.

The latest episode of Bugatti's ‘A New Era’ docuseries, ‘Immersive Dynamics,’ is now available exclusively on the Bugatti YouTube channel.

Fuel consumption and emissions

  • Bolide: Not subject to Directive 1999/94/EC, as it is a racing vehicle not intended for use on public roads.

  • Centodieci: WLTP fuel consumption, l/100 km: low phase 40.3 / medium phase 22.2 / high phase 17.9 / extra high phase 17.1 / combined 21.5; CO2 emissions combined, g / km: NA; efficiency class: G

  • Chiron: WLTP fuel consumption, l/100 km: low phase 44.6 / medium phase 24.8 / high phase 21.3 / extra high phase 21.6 / combined 25.2; CO2 emissions combined, g/km: 572; efficiency class: G

  • Chiron Profilée: WLTP fuel consumption, l/100 km: low phase 44.6 / medium phase 24.8 / high phase 21.3 / extra high phase 21.6 / combined 25.2; CO2 emissions combined, g/km: 572; efficiency class: G

    • Chiron Pur Sport: WLTP fuel consumption, l/100 km: low phase 44.6 / medium phase 24.8 / high phase 21.3 / extra high phase 21.6 / combined 25.2; CO2 emissions combined, g/km: 572; efficiency class: G

    • Chiron Sport: WLTP fuel consumption, l/100 km: low phase 44.6 / medium phase 24.8 / high phase 21.3 / extra high phase 21.6 / combined 25.2; CO2 emissions combined, g/km: 572; efficiency class: G

    • Chiron Super Sport: WLTP fuel consumption, l/100 km: low phase 40.3 / medium phase 22.2 / high phase 17.9 / extra high phase 17.1 / combined 21.5; CO2 emissions combined, g/km: 487; efficiency class: G

    • Chiron Super Sport 300+: WLTP fuel consumption, l/100 km: low phase 40.3 / medium phase 22.2 / high phase 17.9 / extra high phase 17.1 / combined 21.5; CO2 emissions combined, g/km: 487; efficiency class: G

    • Divo: WLTP fuel consumption, l/100 km: low phase 43.3 / medium phase 22.2 / high phase 18.0 / extra high phase 18.3 / combined 22.3; CO2 emissions combined, g/km: 506; efficiency class: G

    • La Voiture Noire: WLTP fuel consumption, l/100 km: low phase 43.3 / medium phase 22.2 / high phase 18.0 / extra high phase 18.3 / combined 22.3; CO2 emissions combined, g/km: 506; efficiency class: G

      • Tourbillon: This model is currently not subject to directive 1999/94/EC, as type approval has not yet been granted.

      • W16 Mistral: WLTP fuel consumption, l/100 km: low phase 40.7 / medium phase 21.9 / high phase 18.3 / extra high phase 17.6 / combined 21.8; CO2 emissions combined, g/km: 495; efficiency class: G

      Bugatti

      The specified fuel consumption and emission data have been determined according to the measurement procedures prescribed by law.

      Further information on official fuel consumption figures and the official specific CO2 emissions of new passenger cars can be found in the “Guide on the fuel economy, CO2 emissions and power consumption of new passenger car models”, which is available free of charge at all sales dealerships and from DAT Deutsche Automobil Treuhand GmbH, Hellmuth-Hirth-Str. 1, D-73760 Ostfildern, Germany and at www.dat.de.

      © 2026 Bugatti Automobiles S.A.S.