The first hybrid with 963hp dedicated to just 499 clients
The LaFerrari perfectly melds cutting-edge formal and aesthetic research and aerodynamic functionality, a result achieved by the synergies - from the start of the model’s inception - between Ferrari’s Styling Centre, headed by design chief Flavio Manzoni, and the engineering and development departments.
The LaFerrari is the first ever Ferrari to integrate the dynamic control systems with active aerodynamics and the hybrid system. Proprietary Ferrari algorithms govern all the systems so that the car can reach the most extreme limits of performance, aerodynamic efficiency and handling without any form of compromise in any area.Visit The LaFerrari Website
The LaFerrari’s overall silhouette and proportions are the very natural product of its architecture and the layout of its hybrid running gear. The design is striking and innovative, yet its sleek profile remains true to Ferrari’s classic mid-rear longitudinal V12 sports car archetype: the cabin and engine compartment volumes are contained within the wheelbase to achieve the best possible balance of its masses. Impressively, the addition of the HY-KERS system has not resulted in an increase in dimensions, but a better balance between the car’s front and rear overhangs. Seen from the side the car has a sharp, downward-sloping nose and a very low bonnet which emphasizes its muscular wheel arches.
The result is strongly reminiscent of the gloriously exuberant forms of late-1960s Ferrari sports prototypes, such as the 330 P4 and the 312P. The ratio of the front and wheel arch dimensions are also very much in line with Ferrari tradition. The LaFerrari’s body has been given a sculptural treatment heavily influenced by its aerodynamics. Its elegantly sculpted forms lend a sense of huge power and aggression to the wheel arches, with surfaces flowing fluidly rearwards over the cockpit and beautifully resolved forms that give shape to the volumes themselves. This fluid surface treatment provides both the exceptional drag and downforce characteristics required by the aerodynamicists, as well as very efficiently channeling air to the components requiring cooling. The car’s front section incorporates a lower front wing that appears suspended on a single central pylon beneath the nose, a clearly F1-inspired choice. Nowhere is the car’s extreme, sporty character more evident than in its tail section where its muscular power is uncompromisingly revealed. Here two deep grooves emerge from the interplay of surfaces over the imposing wheel arches. These efficiently channel hot air from the engine bay and in doing so contribute to boosting downforce at the rear of the car. The engine compartment ends in a full-width nolder beneath which is concealed an unprecedented active aerodynamic device. Sitting on a central pylon, which is stylistically reminiscent of the front one and which also serves to shield the HY-KERS system, is a large adjustable spoiler which deploys automatically and does not impinge upon the sleek design of the tail. The lower section of the tail features bare carbon-fiber and is dominated by deep apertures and a generous diffuser equipped with movable flaps that adjust when the motorized spoiler is deployed.
The LaFerrari’s driving position is an entirely new concept and draws heavily on F1. Both Fernando Alonso and Felipe Massa were directly involved in its development, resulting in a functional cockpit that is track-inspired, delivering the perfect marriage of tradition and modernity. The ergonomics of the LaFerrari’s driving position actually turn conventional road car concepts on their heads and has a design normally seen only in racing cars: the seat is fixed but both the steering wheel and pedal box are highly adjustable to accommodate the driver’s preferred position.
The door panels are a genuinely integrated part of the cabin design as their sculpted carbon-fiber shells sleekly and efficiently hug its forms to afford occupants the greatest possible freedom of movement. The LaFerrari’s steering wheel is another clear example of Ferrari’s on-going commitment to the kind of in-depth R&D embarked upon in the Enzo. The car’s various functions are integrated on the wheel Formula 1-style. The gear-shift paddles are now longer and more ergonomic. The signature bridge on which the other F1 gearbox functions are clustered has taken on a sleek, suspended wing-like shape on which the buttons are arranged for optimal efficiency. Lastly, the satellite pods from which the instrument panel functions and infotainment (audio, sat nav and telemetry) are controlled have been moved, respectively, to the door and an island at the centre of the dashboard with the latter also including a very compact climate control panel. For the first time on a Ferrari the dash features a reconfigurable digital instrument panel which gives the driver the choice of either a layout featuring the traditional central rev counter or a much more competition-style display designed for track use.
The LaFerrari represents Ferrari’s most ambitious project yet to push the boundaries of technology on a road car, drawing together the finest expression of the marque’s technical capabilities in both GT and Formula 1 engineering. It boasts the most extreme performance ever achieved by a Ferrari production car and features the most advanced and innovative technical solutions which will, in the future, filter down to the rest of the Ferrari range. With production limited to just 499 examples, LaFerrari continues Ferrari’s tradition in building uncompromising performance cars for a small number of highly discerning clients.
The LaFerrari is the first ever car with hybrid technology to come out of Maranello. The 6262cc V12 produces 800 CV and the electric motor a further 12o kW (163 CV) for a total of over 960 CV. Thanks to the huge technological leap forward represented by the HY-KERS system, the LaFerrari is the most high performance and efficient Ferrari ever built. Making full use of Ferrari’s F1 expertise with KERS systems which has been further developed for application to road cars, the HY-KERS guarantees maximum integration between the V12 and the electric motor, seamlessly blending extreme performance with maximum efficiency. The high levels of torque available at low revs from the electric motor allowed the engineers to optimize the internal combustion engines performance at higher revs, thus providing unending power throughout the rev range and a maximum torque peak of over 900 Nm.
This solution has not involved any increase in the car’s dimensions or its wheelbase and has, in fact, helped lower its centre of gravity. The F1 dual-clutch gearbox is coupled with the electric motor and an auxiliary electric motor replaces the traditional alternator, thus saving weight and reducing the overall dimensions of the packaging. In addition, the HY-KERS solution was designed from the outset to be flexible and modular to enable its evolution for application to other models in the range.
The electric motor was designed employing High Specific Power Density technology which enabled the engineers to drastically reduce weight and volume in relation to available torque. The result is performance figures that are comparable to those of the F1 car with the same torque density and the same efficiency (94%) or, in other words, very limited power dissipation. Battery size was an essential factor in optimizing the HY-KERS’ weight-power ratio with the aim being to maximize performance while reducing fuel consumption. The solution was an extremely complex system consisting of 120 cells assembled into eight 15-cell modules, with a power output that’s the equivalent of 40 traditional batteries but weighing just 60 kg. The high-voltage batteries are actually assembled in-house by the Scuderia racing department. The batteries are charged in two different ways: under braking - even hard braking when the ABS intervenes, such as when driving on a track - and every time the V12 produces more torque than required, such as in cornering. In the latter instance, rather than the being sent to the wheels, the excess torque is converted to energy and stored in the batteries.
The HY-KERS system is governed by the Hybrid Power Unit which controls the power delivery from both the V12 and the electric motor via two inverters and two DC-DC converters. The variable-frequency control makes torque delivery rapid and precise. This technology has enabled Ferrari’s engineers to maximize performance and reduce fuel consumption. C02 emissions have been reduced to 330 g/km without resorting to electric-only drive which was not within the mission of this model. The HY-KERS system is, however, designed so that in future applications a car can be driven using exclusively electric power for a few kilometers and, during development testing, a full-electric version of LaFerrari achieved just 220 g/km of C02 emissions on the combined cycle.