Ferrari’s development of hybrid and electric powertrains represents one of the most important changes in the company’s modern engineering history. After decades of relying on naturally aspirated and turbocharged combustion engines, Ferrari began exploring how electrical technology could improve performance, recover energy and reduce fuel consumption. What began in Formula 1 eventually reached the company’s road cars, combining traditional Ferrari engines with increasingly advanced electric systems.
Since the introduction of LaFerrari in 2013, Ferrari has developed several different hybrid powertrains, combining electric motors with naturally aspirated V12 engines and turbocharged V6 and V8 engines. The SF90 Stradale introduced plug-in hybrid technology to the regular production range, while the 296 GTB demonstrated the potential of a smaller hybrid powertrain. The F80 further developed this technology, while Ferrari’s first fully electric architecture marked another step in the company’s history.
The first experiments
Ferrari’s early hybrid development was closely connected to Formula 1. In 2009, the Ferrari F60 introduced a Kinetic Energy Recovery System, known as KERS, which recovered energy normally lost during braking and stored it for additional acceleration. The system allowed drivers to access a temporary power increase, demonstrating how electrical assistance could improve performance without replacing the combustion engine. Although Ferrari’s initial system was developed for racing, the experience provided valuable knowledge about energy recovery and electrical power delivery.
In 2010, Ferrari presented the 599 HY-KERS concept at the Geneva Motor Show. Based on the 599 GTB Fiorano, it combined a naturally aspirated V12 with an electric motor and battery system. Ferrari positioned the electrical components to minimise their effect on weight distribution and handling. Although the concept never entered production, it established an important principle for future Ferrari hybrids: electrical technology should improve performance while reducing fuel consumption and emissions.
The LaFerrari
Ferrari introduced LaFerrari in 2013 as its first production hybrid road car. Its powertrain combined a 6,262 cc naturally aspirated V12 producing 800 hp with an electric motor contributing another 163 hp. The combined output reached 963 hp, making LaFerrari the most powerful Ferrari road car introduced at the time. The V12 could reach 9,250 rpm, while the electric motor provided additional torque during acceleration, improving response across the engine’s operating range.
Photo: ROW1 Photography
The HY-KERS system recovered energy during braking and could also use excess torque from the combustion engine to recharge its battery. Unlike later plug-in hybrids, LaFerrari was not designed to operate using electric power alone. Instead, the electric motor continuously supported the V12 to improve overall performance. The LaFerrari Aperta, introduced in 2016, retained the same powertrain, bringing Ferrari’s first production hybrid technology to an open-top limited-series model.
The SF90 family
Ferrari introduced the SF90 Stradale in 2019 as its first series-production plug-in hybrid road car. The powertrain combined a 3,990 cc twin-turbocharged V8 producing 780 hp with three electric motors contributing another 220 hp, bringing combined output to 1,000 hp. Two motors powered the front wheels, while a third was positioned between the combustion engine and transmission. This arrangement provided electric all-wheel drive and allowed the SF90 to operate using electric power alone. Its 7.9 kWh battery provided an electric driving range of approximately 25 kilometres. The SF90 Spider, introduced in 2020, retained the same powertrain.
Photo: Miller Motorcars
In 2023, Ferrari expanded the family with the SF90 XX Stradale and SF90 XX Spider. Both models used a further developed version of the same hybrid architecture, increasing combustion engine output to 797 hp and electric motor output to 233 hp. Combined power consequently reached 1,030 hp. Ferrari also introduced revised electronic controls and an Extra Boost function, which provided additional electrical assistance during acceleration. These improvements demonstrated how the SF90’s performance could be increased through developments to both the combustion engine and electrical system.
The 296 family
Ferrari introduced the 296 GTB in 2021 with a new 2,992 cc twin-turbocharged V6 combined with a single electric motor. The combustion engine produced 663 hp, while the electric motor contributed 167 hp, bringing combined output to 830 hp. Unlike the SF90, the 296 used rear-wheel drive and a more compact hybrid configuration. Its V6 featured a 120-degree cylinder angle, allowing the turbochargers to be positioned between the cylinder banks. This arrangement helped reduce the engine’s overall dimensions and contributed to the car’s weight distribution. The 296 GTS followed in 2022 with the same powertrain.
Photo: Ryan Alexander
The 296 used a 7.45 kWh battery, providing approximately 25 kilometres of electric driving range. In 2025, Ferrari introduced the 296 Speciale and 296 Speciale A with a revised version of the same hybrid architecture. The combustion engine increased to 700 hp, while the electric motor produced up to 180 hp, bringing combined output to 880 hp. Ferrari introduced lighter internal engine components, improved cooling and revised electrical management to support the higher performance. These developments demonstrated how Ferrari could further refine its V6 hybrid powertrain without substantially changing its original configuration.
The F80 powertrain
Ferrari introduced the F80 in 2024 as the successor to LaFerrari and the latest member of its limited-production supercar series. Unlike its naturally aspirated V12-powered predecessor, the F80 featured a 2,992 cc twin-turbocharged V6 producing 900 hp, combined with three electric motors contributing another 300 hp. Total system output reached 1,200 hp, making it Ferrari’s most powerful road car at the time of its introduction. The V6 incorporated technology developed through Ferrari’s 499P endurance racing programme, including advanced combustion systems and components designed for high-performance operation.
The F80 also introduced an 800-volt electrical architecture and a 2.28 kWh battery designed for rapid energy delivery and recovery rather than electric driving range. Two electric motors powered the front wheels, while a third assisted the combustion engine. Ferrari also developed electrically assisted turbochargers to reduce response delays and improve acceleration. Unlike the SF90 and 296, the F80 was not designed as a plug-in hybrid, with its electrical systems focused primarily on maximising performance.
The racing connection
Ferrari’s hybrid development also benefited from its return to the highest category of endurance racing. The Ferrari 499P, introduced for the 2023 season, combined a 2,992 cc twin-turbocharged V6 with an electric motor powering the front axle. Its hybrid system recovered energy during braking and redeployed it during acceleration, operating within the regulations of the Le Mans Hypercar category. The electrical system used a high-voltage battery designed to deliver substantial power over short periods, rather than provide extended electric driving range.
The 499P achieved an important milestone when Ferrari won the 24 Hours of Le Mans in 2023, marking its first overall victory at the event since 1965. Further victories followed in 2024 and 2025, demonstrating the competitiveness of Ferrari’s hybrid endurance racing programme. The 499P also provided experience with energy management, battery cooling and electrical power delivery under demanding racing conditions. Although the racing and road car systems differ, the knowledge gained contributed to Ferrari’s broader hybrid development.
The 849 Testarossa
Ferrari introduced the 849 Testarossa and 849 Testarossa Spider in September 2025 as successors to the SF90 Stradale and SF90 Spider. Both models retained the plug-in hybrid architecture combining a twin-turbocharged V8 with three electric motors. The revised 3,990 cc F154FC engine produced 830 hp, while the electric motors contributed another 220 hp, bringing combined system output to 1,050 hp. Ferrari developed new turbochargers, revised cylinder heads and improved engine components to support the increased combustion engine performance.
The hybrid system retained electric all-wheel drive, with two motors positioned at the front axle and a third connected to the rear drivetrain. Ferrari also revised the electronic control systems to improve power distribution, acceleration and energy management. The 849 Testarossa continued to offer electric driving capability, demonstrating how Ferrari could combine increasingly powerful combustion engines with electrical assistance. The model represented another stage in the development of the V8 hybrid architecture first introduced with the SF90 Stradale.
The first electric Ferrari
Ferrari’s development of fully electric propulsion became an important part of its engineering strategy during the 2020s. In 2024, the company inaugurated its new e-building in Maranello, designed to support the production of combustion engine, hybrid and fully electric vehicles. The facility also accommodates the manufacturing of important electrical components, including electric motors, battery systems and electric axles. This investment established the manufacturing foundation for the Ferrari Luce, the company’s first fully electric production model.
Ferrari initially revealed the car’s technical architecture in October 2025 under the Ferrari Elettrica designation, before introducing it as the Ferrari Luce. Its powertrain features four electric motors, with two positioned at each axle, allowing independent control of power delivery between the wheels. Maximum output exceeds 1,000 hp in boost mode, while a 122 kWh battery operating at up to 880 volts provides an estimated driving range exceeding 530 kilometres. Ferrari also developed its own electric motors, control electronics and battery systems, marking a substantial departure from the traditional combustion engine architecture.
The hybrid legacy
Ferrari’s development of hybrid powertrains began with experimental energy recovery systems before evolving into several distinct production architectures. LaFerrari introduced electrical assistance to the company’s road cars in 2013, while the SF90 Stradale established plug-in hybrid technology and electric all-wheel drive in 2019. The 296 family demonstrated the advantages of combining a compact V6 with a single electric motor, while the F80 introduced a more powerful system focused entirely on performance. Each generation expanded Ferrari’s understanding of electrical technology and its integration with combustion engines.
Photo: Ferrari Fort Lauderdale
The introduction of a fully electric powertrain represents the next stage in this development. Although its architecture differs fundamentally from the hybrid systems that preceded it, Ferrari continues to prioritise acceleration, responsiveness, weight distribution and precise vehicle control. From the early KERS experiments to modern hybrid supercars and fully electric propulsion, electrical technology has become an increasingly important part of Ferrari’s engineering history.
Ferrari Electric Powertrains table
|
Year |
Capacity |
Power |
Range |
Model(s) |
|
2010 |
3 kWh |
74 kW (100 hp) |
No EV-only driving |
Ferrari 599 Hy-Kers |
|
2013 |
2.3 kWh |
120 kW (163 hp) |
No EV-only driving |
LaFerrari, LaFerrari Aperta, FXX-K |
|
2019 |
7.9 kWh |
162 kW (217 hp) |
25 km (16 miles) |
SF90 Stradale & Spider, SF90 XX Stradale & Spider |
|
2022 |
7.45 kWh |
122 kW (167 hp) |
25 km (16 miles) |
296 GTB & GTS, 296 Speciale & Speciale A |
|
2025 |
2.3 kWh |
105 kW (142 hp) |
No EV-only driving |
Ferrari F80 |
|
2026 |
6.5 kWh |
162 kW (217 hp) |
25 km (16 miles) |
849 Testarossa & Testarossa Spider |
|
2026 |
122 kWh |
772 kW (1,050 hp) |
530 km (330 miles) |
Ferrari Luce |
What’s your favourite Ferrari with a hybrid or electric powertrain?
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