A super sports car like the Veyron 16.4*) needs to be light in order to reach top speeds.
From the initial concept to the design and the selection of materials, the Bugatti engineers tapped the full potential of their considerable expertise to ensure that this car is, indeed, a lightweight. Titanium, carbon, magnesium, and aluminum – each part of the Veyron 16.4 is made of the material with the lowest weight and the highest level of functionality. The titanium piston rods save approx. 4 kg of weight, the titanium screws 3.5 kg, and the magnesium valve caps another 2 kg. By reducing the wheelbase, the original weight was reduced by about a third, and the titanium exhaust system – another Veyron 16.4 first – with its wafer-thin layer of titanium aluminite saves yet another 17 kg. These combined efforts capped the Veyron 16.4’s weight at a compact 1,888 kg. Add the car’s high-powered performance and unmatched speed, and you have a uniquely fast and nimble super sports car.
Optimum protection is guaranteed by the car’s carbon monocoque construction: weighing only 110 kg, the survival cell withstands enormous crash impact forces. This principle is comparable to that used in the Formula 1 world, where drivers usually emerge uninjured from their cars even after severe accidents. The maximum impact force reduction is mainly due to the frames integrated in the carbon monocoque. The front part of the monocoque is made of aluminum; the rear consists of a combination of carbon, stainless steel, and aluminum. The car’s safety concept, which includes two frontal airbags for the front-seat occupants, is so sophisticated that additional airbags would be redundant. Crash tests have shown the Veyron 16.4 to conform to all international safety standards – and to exceed them. As painful as it was for the engineers to watch their valuable prototypes hit the test wall, they were always glad to see that the Veyron survived these maneuvers almost unharmed.
Engine covers, intercooler covers (shown)
Wings, doors, engine block, water cooling pipes, crash frames front and rear, interior trim, gearbox housing (shown)
*) Gearbox: 7 Gear DSG, fuel consumption in town: 41.9l/100km, fuel consumption out of town: 15.6l/100km, fuel consumption combined: 24.9l/100km, CO2 emission combined: 596g/km, Efficiency Class: G
Annual tax for this vehicle €1132
Energy costs at a mileage of 20,000 km:
Fuel costs (Super Plus) at a fuel price of 1.624 EUR/billing unit €8087.52
Created on: 11/30/2011
The values were calculated using the prescribed measurement method (§ 2, numbers 5, 6, 6 per car energy labeling ordinance in its current version).CO2 emissions, which result from the production and provision of fuel or other energy sources are not taken into account in the determination of CO2 emissions pursuant to Directive 1999/94/EC. The figures do not refer to a specific vehicle and are not part of the offer, but only serve the purpose of comparing different vehicle types. The fuel consumption and CO2 emissions of a vehicle not only depend on the efficient utilization of the fuel by the vehicle, but also on driving style and other non-technical factors. CO2 is the main greenhouse gas responsible for global warming. Notice pursuant to Directive 1999/94/EC of each current valid version: For more information on official fuel consumption and the specific official CO2 emissions of new passenger cars can be acquired from the "Guide for Fuel Economy, CO2 Emissions and Power Consumption of New Passenger Cars" available at all sales outlets and at DAT German Automobil Treuhand GmbH, Hellmuth-Hirth-Strasse 1, D-73760 Ostfildern – available free of charge or at www.dat.de. Efficiency classes of vehicles are evaluated in terms of CO2 emissions by means of the vehicle's empty weight. Vehicles that correspond to the average are classified as D. Vehicles that are better are graded with A+, A, B or C. Vehicles that are worse than the average are given an E, F or G.