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Last Updated: Jul 01, 2025 | Study Period: 2024-2031
48V systems offer a cost-effective bridge between conventional internal combustion engines and full electric powertrains, enabling mild hybrid functionalities without requiring a complete vehicle redesign. These systems support key functions like start-stop, regenerative braking, torque assist, and electric turbocharging, improving fuel efficiency and reducing CO₂ emissions.
The adoption of 48V technology is accelerating globally due to increasingly stringent emission regulations, especially in Europe, China, and North America. OEMs are leveraging 48V systems to meet fleet-wide CO₂ targets while preserving performance in ICE and hybrid vehicles.
Mild hybrid electric vehicles (MHEVs) are the dominant application segment, using 48V lithium-ion batteries to support various vehicle sub-systems and reduce engine load. This configuration improves drivability and reduces fuel consumption by 10–15% in some use cases.
Key components in the 48V system include belt-driven starter generators (BSGs), DC-DC converters, 48V lithium-ion batteries, and electric superchargers, each of which plays a critical role in power management and propulsion support.
Luxury and premium vehicle segments have been the early adopters, but mid-range and compact vehicles are rapidly integrating 48V systems due to cost reductions, improved packaging, and rising demand for better fuel economy.
Asia-Pacific is the largest and fastest-growing regional market, driven by vehicle electrification policies, strong domestic manufacturing capacity, and the presence of leading automakers and Tier 1 suppliers in China, Japan, and South Korea.
System cost, safety integration, and packaging constraints remain key challenges, especially in compact vehicle platforms. However, modular architectures and advancements in battery chemistry are reducing these barriers.
Automotive OEMs and Tier 1 suppliers such as Bosch, Continental, Valeo, Delphi, and Hitachi Astemo are leading innovation, offering scalable 48V solutions tailored to different vehicle types and regional regulatory needs.
48V technology is also being explored for electrification in two-wheelers, commercial vehicles, and autonomous mobility platforms, expanding the addressable market beyond passenger cars.
Future growth will be supported by the convergence of 48V systems with connected car technologies and advanced driver-assistance systems (ADAS), where additional electrical power is required to support sensors, processors, and actuators.
The global Automotive 48V System Market was valued at USD 4.7 billion in 2024 and is projected to reach USD 16.9 billion by 2031, expanding at a CAGR of 20.1% during the forecast period.
This significant growth is driven by the automotive industry's rapid shift toward electrification, with 48V systems acting as a cost-effective solution for improving fuel efficiency, reducing CO₂ emissions, and enabling advanced powertrain functions. These systems are increasingly adopted in mild hybrid electric vehicles (MHEVs), where they power electric turbochargers, start-stop systems, active chassis technologies, and infotainment units.
The rising demand for enhanced fuel economy without fully transitioning to high-voltage EVs is supporting widespread deployment in mid-segment passenger cars. Additionally, tightening emission norms in Europe, China, and North America are encouraging OEMs to integrate 48V architectures as a bridge between conventional internal combustion engines and full battery electric vehicles.
With advent of 48-volt technology, formerly parasitic functions that ran on the engine may now be replaced with electrically powered systems, gaining a competitive advantage and economy. The usage of 48V innovation in Europe is expected to rise at a high rate, owing to increasing CO2 emissions regulations and the growing abandonment of diesel technology.
Modern automobiles, with their electricity temperature control, strong operator computers, and complicated multimedia applications, demand significantly more amount of electricity than what they had to, resulting in changes between 12v to 48v systems.
The essential step towards hybridization is to employ 48V programs that assist internal combustion engines run efficiently and effectively by operating supplementary tasks like power steering racks, brake pumping systems, and pumping systems with electrical machines but instead of requiring an engine power take-off. Because the functioning of these services could be more precisely tailored to the demands of the automobile, this can become more environmentally friendly than powerful motor.
Whenever the automobile comes to a halt, the motor generator, which is powered by AC electricity from the battery through an inverters, may restart the internal combustion engine and then get the car rolling again and more rapidly by delivering greater torque.
This strategy can increase fuel efficiency by 10 to 20% at a significantly lesser cost than just a complete hybrid solution. The transition to 48V will need the creation of a multitude of new mechanical parts capable of operating at this constant potential while meeting the exacting standards of the automotive sector.
| S No | Overview of Development | Development Detailing | Region of Development | Possible Future Outcomes |
| 1 | Texas Instruments Bullish on 48-Volt Automotive Systems | Texas Instruments has a new 48-volt motor controller to help build the ecosystem of components needed for this technology to become commonplace. | Global Scale | This would enhance better Technologies and production |
Mild hybrids, for instance, will facilitate effective inverters circuits to be capable of contributing to and withdraw electricity from of the integrated 48V battery before incurring substantial losses. Wiring looms, as well as any devices that switch considerable quantities of electricity at 48V, may need to be modified to manage the increased voltage levels.
Currently nowadays, hybrid electric vehicle (HEV) and all-electric vehicle (EV) concepts are everywhere. However, a less visible but substantial development is affecting the automobile industry. The incorporation of a 48V current (DC) bus into drivetrains. This 48V inclusion is not limited to EVs and HEVs. It is also being implemented for more prevalent gasoline - powered vehicles, whilst the market share of EVs and HEVs expands.
The major goal of this proposed operating voltage is to minimize CO2 emissions through recuperating and start-stop characteristics, as well as to power electrical components classified as high-power loads. Furthermore, the use of 48-Volt innovation, which provides greater torque, allows for more aggressive control and acceleration. Government-mandated reduced pollution requirements prompted the use of hybrid and electric automobiles.
With electric and hybrid vehicles, 48V systems have been widely used to electric generator and also light fittings, compressors, as well as other devices. These systems are employed in hybrid automobiles because they provide more horsepower during acceleration while also increasing fuel efficiency. The 48V systems having resulted in the creation of reduced mild hybrids, that are becoming increasingly popular all around the world.
Valeo of France and Dana Incorporated of the United States have established a global partnership to bring 48V hybrid and electric car systems to market. The systems include everything needed to electrify and hybridise light (three- and four-wheeled) urban cars weighing up to 2.5 tonnes.
The end-to-end systems created through the agreement will help to the rise of cheap vehicle electrification by combining Dana's e-Gearbox mechanisms with Valeo's 48V technologies. Dana continues to extend its hybrid and electric vehicle portfolio in order to provide a full range of turn-key solutions for the continuously evolving mobility sector.
Customers will receive entire electromechanical systems for three- and four-wheeled low-speed electric vehicles, as well as hybrid e-AWD applications for passenger cars and crossovers, as a result of the collaboration. The systems will feature a Spicer Electrified e-Gearbox produced by Dana as well as an electric motor and inverter supplied by Valeo.
The systems include everything needed to electrify and hybridise light (three- and four-wheeled) urban cars weighing up to 2.5 tonnes. Valeo created and manufactured an electric motor and an inverter, which works as the electric vehicle's "brain" by allowing it to generate voltage and alternating currents from a power source of a different voltage or frequency, while Dana developed a Spicer Electrified e-Gearbox.
A 48V method can control increased energy requirements from of the automobile and equipment. Stop-start motors, hybrid motors, and turbochargers are often powered by 48 Volt electrical systems, providing for auxiliary power units with improved fuel efficiency and performance.
Hydro - mechanical peripherals including such steering systems, automatic headlights, cooling system, engine cooling, and compressed air are handled by 48 Volt systems.
When compared to the conventional 12V design, the system provides 4x the voltage and power at the same current. It converts the car into a "mild hybrid" when combined with a gasoline or diesel engine.
A 48V batteries may also operate as being one of the generating units in light urban cars, pushing the vehicle and providing emission-free driving over short distances. Numerous plug - in hybrid powertrain topologies based on 48V are currently being investigated by automotive vendors. The number of achievable advantages such as high of Carbon dioxide reduction will indeed be determined by the topologies or position of the asynchronous generator.
At present time, the Belt Starter Generator is the most extensively used because it blends a relatively cheap installation cost – and eliminates additional expenses for electrical shocks protection with both the advantages of Carbon dioxide reduction and performance increase. The 48V system helps cars and vans in meeting CO2 emissions rules by reducing fuel usage by up to 10-15% and, as nothing more than a function, CO2 production by upwards to 15%.
Continental has put its first 48V mild-hybrid system on the road in Europe, in the Renault Scenic minivan, and anticipates that the embryonic technology will see a rise in applications between now and the next decade. According to the German supplier, 48V electrical systems, which boost the amount of onboard energy available to improve powertrain performance or power a growing list of comfort and convenience amenities, should be standard on 25 million new vehicles produced each year across the world.
There are problems (in terms of electrification), but there are also numerous opportunities for Conti and the automotive industry as a whole. The Scenic application employs Continental's Eco Drive, a stop/start system that runs on a 48V circuit rather of the vehicle's primary 12V electrical bus and is fueled by a 0.5 kWh lithium-ion battery.
The Scenic Hybrid Assist system, which comes standard with both diesel and gasoline powertrains, combines a water-cooled induction motor and an integrated inverter, with electric power provided directly to the engine crankshaft through belt drive.
Although the system does not give launch assistance, when in sailing mode, when the internal-combustion engine shuts down and decouples from the driveline, the electric power can drive the wheels in tiny bursts to maintain speed in highway cruising. At moderate speeds, such as in parking lots, the car can also move entirely on electric power.
48V innovation seems to have a clear position in the modernization phase and will continue to play a significant role in making combustion engines more productive. Whether such a car is energised completely by a rechargeable batteries or by a fuel cell or synfuels,
48V electric utilities in alternative power sources can eventually accelerate efficiency gains when contrasted to 12V supplies and also when compared to HV simplifying assumptions for the construction and configuration of alternative power sources in vehicles thus providing possibility for maximization.
Robert Bosch has one of the lead developers and integrators of the 48 Volt system in the market. It has brought in solutions for 48 Volt Hybrid Systems and 48 V Battery systems into the market.
Bosch's 48 V hybrid technologies make it easier for passenger automobiles to transition to electrified powertrains. The solution enables for electric driving modes such as cruising, traffic jam assistance, and automation systems parking.
This significantly reduces fuel use and environment degradation. Energy produced obtained during recuperating is used to operate the 48 V power network along with replenishment of the 48V battery.
Infineon Technologies is also the leading developer of various 48 Volt systems in the market. The Belt starter generator 48 V is one of the most known innovations of the company. The 48V mild-hybrid electricity supply, the P0 drivetrain combination with the Belt-driven integrated Starter Generator (BiSG) has the lowest integration cost and development effort.
The induction generator has a maximum peak power of 10 kW and a poor specific power in a 3-phase or 6-phase arrangement.Nevertheless, the electrical machine horsepower for boosting is restricted for the BiSG by the bels attachment, and drivetrain frictional losses lower recuperating effectiveness.
The Global Automotive 48V System Market can be segmented into the following categories for further analysis.
| Sl no | Topic |
| 1 | Market Segmentation |
| 2 | Scope of the report |
| 3 | Research Methodology |
| 4 | Executive summary |
| 5 | Key Predictions of Automotive 48V System Market |
| 6 | Avg B2B price of Automotive 48V System Market |
| 7 | Major Drivers For Automotive 48V System Market |
| 8 | Global Automotive 48V System Market Production Footprint - 2024 |
| 9 | Technology Developments In Automotive 48V System Market |
| 10 | New Product Development In Automotive 48V System Market |
| 11 | Research focus areas on new Automotive 48V System |
| 12 | Key Trends in the Automotive 48V System Market |
| 13 | Major changes expected in Automotive 48V System Market |
| 14 | Incentives by the government for Automotive 48V System Market |
| 15 | Private investments and their impact on Automotive 48V System Market |
| 16 | Market Size, Dynamics And Forecast, By Type, 2025-2031 |
| 17 | Market Size, Dynamics And Forecast, By Output, 2025-2031 |
| 18 | Market Size, Dynamics And Forecast, By End User, 2025-2031 |
| 19 | Competitive Landscape Of Automotive 48V System Market |
| 20 | Mergers and Acquisitions |
| 21 | Competitive Landscape |
| 22 | Growth strategy of leading players |
| 23 | Market share of vendors, 2024 |
| 24 | Company Profiles |
| 25 | Unmet needs and opportunities for new suppliers |
| 26 | Conclusion |
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