Global Electric Coolant Pump Market Growth, Share, Size, Trends and Forecast (2025 - 2031)

• In January 2024, Valeo launched its next-generation electric coolant pump, designed for electric and hybrid vehicles. This new model offers enhanced energy efficiency and is optimized to support the cooling needs of electric powertrains and batteries.

• In October 2023, Bosch unveiled its upgraded electric coolant pump that integrates advanced thermal management capabilities for the latest electric vehicle models. The pump is designed to improve the efficiency of battery cooling systems, contributing to better vehicle performance​.

The global electric coolant pump market is experiencing growth due to the increasing need for efficient cooling systems in modern vehicles. Electric coolant pumps are critical for a variety of applications, including engine cooling, HVAC systems, battery and power electronics cooling, and gearbox cooling. These pumps help regulate temperature to ensure the vehicle operates efficiently and safely. In electric vehicles (EVs), the cooling of batteries and power electronics is particularly crucial to maintain performance and extend the lifespan of these components. As the automotive industry continues to embrace electrification, the demand for electric coolant pumps in different vehicle types, including battery electric vehicles (BEVs) and plug-in hybrid electric vehicles (PHEVs), is expected to rise significantly.

Electric coolant pumps come in different types, including sealless types such as electrically driven (canned) and magnetically driven pumps. These variations offer distinct advantages, such as reduced mechanical wear and the ability to function efficiently under different operational conditions. Electrically driven pumps are commonly used in applications where precision and adaptability are critical, while magnetically driven pumps are favored for their higher reliability and efficiency in maintaining consistent performance over time. The choice of pump type often depends on the specific cooling requirements of the vehicle's components, with manufacturers opting for solutions that balance energy efficiency, cost, and durability.

The electric coolant pump market is also segmented based on vehicle voltage and power output, with most pumps operating at voltages of 12V or 48V, catering to both passenger and commercial vehicles. Additionally, power output ranges from pumps with capacities up to 100W to those exceeding 100W, depending on the scale of the cooling requirements. Communication interfaces such as LIN, CAN, and PWM are used to ensure smooth integration of electric coolant pumps within the vehicle's broader electronic control systems. These pumps enable precise communication and control, allowing for efficient cooling performance across various applications in both internal combustion engine (ICE) vehicles and electric vehicles. As the global shift toward more sustainable and energy-efficient vehicles accelerates, the role of electric coolant pumps in maintaining optimal vehicle performance and longevity becomes even more critical.

Global Electric Coolant Pump Market Analysis

In this report, the Global Electric Coolant Pump Market has been segmented by Application, Sealless Type, Vehicle Type, Electric Vehicle Use, ICE Vehicle, Vehicle Voltage, Power Output, Communication Interface and Geography.

Global Electric Coolant Pump Market, Segmentation by Application

The Global Electric Coolant Pump Market has been segmented by Application into Engine Cooling & HAVC, Battery and Power Electronics Cooling and Gearbox Cooling.

Electric coolant pumps play a crucial role in various vehicle cooling applications, ensuring optimal performance and longevity of critical components. In engine cooling and HVAC systems, electric coolant pumps help regulate the temperature of the engine and the cabin, enhancing comfort and efficiency. These pumps work by circulating coolant throughout the engine to maintain an ideal operating temperature, preventing overheating and ensuring smooth engine operation. In HVAC systems, the pumps manage the temperature of the air conditioning units, enabling consistent climate control within the vehicle.

For electric vehicles (EVs) and hybrid electric vehicles (HEVs), electric coolant pumps are essential for battery and power electronics cooling. The battery in an EV generates significant heat during charging and discharging, and keeping it at an optimal temperature is crucial to ensure performance, prevent overheating, and extend the battery's life. Electric coolant pumps circulate coolant around the battery and power electronics, efficiently managing heat and maintaining safe operating conditions. This is particularly important in high-performance EVs where battery efficiency and longevity are paramount.

In addition to engine and battery cooling, electric coolant pumps also support gearbox cooling in both traditional internal combustion engine (ICE) vehicles and electric vehicles. The gearbox in a vehicle transmits power from the engine or motor to the wheels, and it operates under intense heat and pressure. An electric coolant pump helps dissipate the heat generated by the gearbox, preventing damage and ensuring smooth operation. By efficiently managing temperature, electric coolant pumps contribute to the durability and performance of a wide range of vehicle components, supporting the growing demand for energy-efficient and environmentally friendly automotive solutions.

Global Electric Coolant Pump Market, Segmentation by Sealless Type

The Global Electric Coolant Pump Market has been segmented by Sealless Type into Electrically driven/ Canned and Magnetically driven.

In the global electric coolant pump market, sealless pumps are commonly used due to their superior reliability and efficiency. Two of the primary sealless types are electrically driven (canned) and magnetically driven pumps. Electrically driven or canned pumps are designed with an integrated motor within a sealed casing, ensuring that there are no moving seals that could wear out over time. These pumps offer high precision and are ideal for applications where compactness and adaptability to various cooling requirements are crucial. The design of electrically driven pumps reduces the risk of leakage and provides efficient temperature management for components like batteries and power electronics in electric vehicles (EVs) and hybrid electric vehicles (HEVs).

Magnetically driven pumps, on the other hand, rely on the interaction between magnetic fields to transfer energy from the motor to the pump impeller without direct physical contact. This sealless design eliminates the need for traditional mechanical seals, reducing friction and wear and making them highly durable over time. Magnetically driven pumps are particularly beneficial in applications that demand high reliability and efficiency, as they offer consistent performance and reduced maintenance needs. These pumps are commonly used in situations where the pump must operate continuously or in harsh conditions, such as in the cooling systems of electric vehicle batteries and other powertrain components.

Both electrically driven and magnetically driven pumps offer distinct advantages depending on the specific requirements of the cooling system. Electrically driven pumps are generally more versatile and can be easily integrated into various cooling circuits, while magnetically driven pumps are ideal for long-term performance without the risk of mechanical failure due to the absence of seals. The growing demand for energy-efficient, environmentally friendly, and low-maintenance components in modern vehicles is driving the adoption of both types of sealless pumps, which play an essential role in maintaining optimal temperatures for both electric and internal combustion engine (ICE) vehicles.

Global Electric Coolant Pump Market, Segmentation by Vehicle Type

The Global Electric Coolant Pump Market has been segmented by Vehicle Type into Battery Electric (BEV) and Plug-in Hybrid Electric Vehicle (PHEV).

The electric coolant pump market is particularly driven by the growing adoption of battery electric vehicles (BEVs) and plug-in hybrid electric vehicles (PHEVs). In BEVs, electric coolant pumps are essential for managing the temperature of critical components such as the battery and power electronics. Since batteries in BEVs are highly sensitive to temperature fluctuations, maintaining an optimal temperature range is crucial to enhance performance, increase driving range, and extend the lifespan of the battery. Electric coolant pumps help circulate coolant through the battery packs, keeping them at the ideal temperature and ensuring that the vehicle operates safely and efficiently under different driving conditions.

For plug-in hybrid electric vehicles (PHEVs), the need for effective cooling systems is similar, but the vehicles also incorporate internal combustion engines (ICEs) alongside their electric drivetrains. This dual powertrain setup requires efficient cooling for both the electric components and the traditional engine system. Electric coolant pumps are used to regulate the temperature of the engine, battery, and power electronics, ensuring that the vehicle maintains optimal performance regardless of the power source being used. In PHEVs, these pumps help achieve a balance between the electric and internal combustion systems, optimizing both energy efficiency and vehicle performance.

As the global automotive industry increasingly shifts toward electrification, the demand for electric coolant pumps in BEVs and PHEVs is expected to grow. These vehicles rely on advanced cooling systems to maintain energy efficiency, enhance the driving experience, and meet regulatory standards for emissions and energy consumption. With the automotive market's transition to electric drivetrains, electric coolant pumps play a vital role in enabling the safe and efficient operation of BEVs and PHEVs, making them integral components in the future of sustainable transportation.

Global Electric Coolant Pump Market, Segmentation by Electric Vehicle Use

The Global Electric Coolant Pump Market has been segmented by Electric Vehicle Use into Passenger Car and Commercial Vehicle.

Electric coolant pumps are essential in both passenger cars and commercial vehicles to maintain the efficient operation of electric drivetrains and ensure the safety and longevity of components like batteries and power electronics. In passenger cars, these pumps are particularly crucial as they regulate the temperature of the vehicle’s battery and powertrain, preventing overheating and optimizing energy usage. Efficient temperature management is key to maximizing the range and performance of electric vehicles (EVs), and electric coolant pumps help ensure that the vehicle operates under optimal conditions. As the adoption of passenger electric vehicles continues to rise, the demand for advanced cooling systems, including electric coolant pumps, is expected to increase.

For commercial vehicles, such as electric buses, trucks, and delivery vans, electric coolant pumps play a similar role in regulating the temperature of the vehicle’s components. However, the cooling requirements for commercial EVs are typically more demanding due to the larger size of the battery packs and the higher power requirements of these vehicles. Commercial electric vehicles often operate in more diverse and challenging environments, which requires robust and highly efficient cooling systems. Electric coolant pumps ensure that the vehicle’s battery, motor, and other powertrain components maintain safe operating temperatures, thereby enhancing vehicle performance, minimizing downtime, and extending the lifespan of expensive electric components.

As both passenger cars and commercial vehicles increasingly adopt electric powertrains, the role of electric coolant pumps will continue to expand. In addition to ensuring the efficient functioning of the vehicle’s electric components, these pumps also contribute to the overall energy efficiency of the vehicle, helping to reduce energy consumption and maximize range. The rise of electric vehicles in both the personal and commercial sectors is driving significant growth in the electric coolant pump market, with manufacturers focusing on developing pumps that are efficient, reliable, and capable of handling the unique cooling demands of electric transportation.

Global Electric Coolant Pump Market, Segmentation by ICE Vehicle

The Global Electric Coolant Pump Market has been segmented by ICE Vehicle into Passenger Car and Commercial Vehicle.

In internal combustion engine (ICE) vehicles, electric coolant pumps are used to optimize the performance of the engine, transmission, and other critical components. These pumps ensure that the engine operates within the ideal temperature range by circulating coolant through the engine and cooling system. This helps prevent overheating, improves fuel efficiency, and reduces emissions, as maintaining an optimal temperature is crucial for the engine to run efficiently. In passenger cars, electric coolant pumps contribute to a smoother and more efficient driving experience by helping the engine reach its ideal operating temperature more quickly and maintaining it during different driving conditions.

For commercial vehicles, including trucks and buses, electric coolant pumps also play a vital role in managing the cooling of larger, more powerful engines. These vehicles, often used in demanding environments and for long-haul operations, require highly efficient cooling systems to maintain engine performance over extended periods. The electric coolant pumps used in commercial vehicles are designed to handle higher cooling loads and provide more precise temperature control, ensuring that the engine, transmission, and other components are kept at optimal operating temperatures. This helps reduce wear and tear on the engine and improves the vehicle's overall reliability and longevity.

As ICE vehicles continue to dominate the global automotive market, the role of electric coolant pumps remains integral to maintaining the performance, efficiency, and durability of these vehicles. Despite the rise of electric vehicles (EVs), ICE vehicles are expected to remain in use for many years, particularly in commercial transportation. The demand for electric coolant pumps in ICE vehicles is driven by the need for more energy-efficient, reliable, and environmentally friendly solutions that can support modern engine technologies and meet stricter emissions standards. These pumps help meet the cooling demands of both passenger and commercial ICE vehicles, contributing to improved performance and reduced environmental impact.

Global Electric Coolant Pump Market, Segmentation by Vehicle Voltage

The Global Electric Coolant Pump Market has been segmented by Vehicle Voltage into 12V and 48V.

In the electric coolant pump market, vehicle voltage plays a significant role in determining the type and performance characteristics of the pumps used in both electric and internal combustion engine (ICE) vehicles. The two most common voltage configurations for vehicles are 12V and 48V systems. The 12V systems are widely used in traditional ICE vehicles, where the coolant pump is designed to work with the vehicle’s standard electrical system. These pumps are optimized for smaller, less demanding cooling tasks, such as regulating engine temperature and cooling HVAC systems. The 12V configuration is also common in some hybrid electric vehicles (HEVs) and entry-level electric vehicles (EVs) where the power demands are lower compared to higher-end models.

The 48V vehicle voltage system is becoming increasingly popular, particularly in newer hybrid electric and fully electric vehicles, as it allows for more efficient power delivery and enables the use of advanced components. Electric coolant pumps designed for 48V systems are typically more powerful and can handle the higher cooling demands of larger battery packs and more complex powertrains found in modern EVs and PHEVs (plug-in hybrid electric vehicles). The higher voltage allows these pumps to operate more efficiently and with greater precision, providing better cooling performance for batteries, motors, and power electronics, which is crucial for optimizing range and prolonging the lifespan of electric vehicle components.

As the automotive industry continues to transition toward more electrified powertrains, the 48V architecture is expected to see wider adoption, especially in electric and hybrid vehicles. The increased power requirements of electric drivetrains necessitate more robust and efficient cooling solutions, and 48V electric coolant pumps are designed to meet these demands. With more advanced vehicles being developed for both consumer and commercial applications, the use of 48V systems is poised to become the standard for higher-performance electric and hybrid vehicles. However, 12V systems will continue to dominate in conventional vehicles and lower-end models due to their simplicity and cost-effectiveness.

Global Electric Coolant Pump Market, Segmentation by Power Output

The Global Electric Coolant Pump Market has been segmented by Power Output into Up to 100W and More Than 100W.

The power output of electric coolant pumps plays a crucial role in determining their suitability for different vehicle applications. Pumps with power outputs of up to 100W are typically used in lower-demand applications, where cooling requirements are relatively moderate. These pumps are commonly found in smaller passenger vehicles, including those with internal combustion engines (ICE), entry-level hybrid electric vehicles (HEVs), and some electric vehicles (EVs). The 100W pumps are sufficient for managing the cooling of engines, batteries, and HVAC systems in these vehicles, where the cooling loads are not as demanding. These pumps are designed to operate efficiently without consuming excessive power, contributing to the overall energy efficiency of the vehicle.

On the other hand, electric coolant pumps with power outputs greater than 100W are often used in vehicles that require more robust cooling solutions. Higher power pumps are typically found in larger or higher-performance electric vehicles (EVs), plug-in hybrid electric vehicles (PHEVs), and commercial vehicles. These vehicles tend to have larger battery packs and more powerful drivetrains that generate more heat, necessitating the use of more powerful pumps to maintain optimal operating temperatures. For example, commercial electric trucks, buses, and high-performance passenger EVs may require pumps with power outputs greater than 100W to effectively manage the heat generated by the larger batteries, motors, and power electronics, ensuring vehicle safety, efficiency, and longevity.

As the demand for electric and hybrid vehicles continues to grow, the need for high-power electric coolant pumps will increase, especially in applications where efficient heat management is crucial. Pumps with outputs greater than 100W are also expected to play a larger role in the commercial vehicle sector, where cooling systems need to handle the higher energy demands of heavy-duty applications. This trend is driven by the increasing performance requirements and larger powertrains found in modern vehicles. The development of more powerful electric coolant pumps will ensure that vehicle components remain within the ideal temperature range, optimizing both energy efficiency and overall vehicle performance.

Global Electric Coolant Pump Market, Segmentation by Communication Interface

The Global Electric Coolant Pump Market has been segmented by Communication Interface into LIN, CAN and PWM.

The communication interface used in electric coolant pumps plays a critical role in their functionality and integration with the vehicle’s broader electrical system. Three common communication interfaces are Local Interconnect Network (LIN), Controller Area Network (CAN), and Pulse Width Modulation (PWM), each offering distinct benefits based on the complexity and requirements of the vehicle’s cooling system.

The LIN interface is often used in simpler, lower-cost applications where less complex communication is needed. It is a single-wire communication protocol that allows for the control of electric coolant pumps in vehicles with less demanding powertrain and cooling system requirements. LIN is typically employed in systems where the cooling pump’s operation does not need to be continuously monitored or adjusted in real-time, making it suitable for smaller passenger vehicles or low-end hybrid electric vehicles (HEVs). Despite its simplicity, LIN provides adequate communication for controlling the pump’s basic functions.

On the other hand, the CAN interface is used in more advanced vehicles, including higher-end hybrid, plug-in hybrid electric vehicles (PHEVs), and electric vehicles (EVs). CAN is a multi-wire communication protocol that allows for faster, more robust data transmission and the ability to communicate with multiple control modules in the vehicle. Electric coolant pumps with CAN interfaces can send and receive real-time data, such as temperature readings and pump speed adjustments, enabling more precise and dynamic control over the vehicle’s cooling system. This is particularly important in vehicles with complex powertrains and larger battery packs, where real-time temperature regulation is essential to maintaining optimal performance.

PWM (Pulse Width Modulation) is commonly used in applications where precise control over the pump’s speed is required. By varying the width of the electrical pulses sent to the pump motor, PWM allows for efficient speed control and energy savings, making it ideal for electric coolant pumps in modern electric and hybrid vehicles. PWM enables the pump to operate at varying speeds based on the vehicle’s cooling needs, adjusting to the demands of different driving conditions and helping improve overall vehicle efficiency. This flexibility is particularly useful in larger, more energy-intensive vehicles, such as commercial trucks and high-performance EVs, where the cooling system must adapt to varying heat generation levels across different operational states.

Global Electric Coolant Pump Market, Segmentation by Geography

In this report, the Global Electric Coolant Pump Market has been segmented by Geography into five regions; North America, Europe, Asia Pacific, Middle East and Africa and Latin America.

Global Electric Coolant Pump Market Share (%), by Geographical Region, 2024

In North America, the demand for electric coolant pumps is driven by the rising adoption of electric vehicles (EVs), with major manufacturers focusing on developing and expanding EV offerings. The region also benefits from strong regulatory mandates aimed at reducing vehicle emissions, further encouraging the use of energy-efficient components like electric coolant pumps. As the infrastructure for electric vehicles continues to grow, the market for electric coolant pumps is expected to expand, particularly in passenger cars, commercial vehicles, and light-duty vehicles.

Europe is expected to lead the market due to its strong automotive industry, stringent environmental regulations, and high consumer demand for environmentally friendly and energy-efficient vehicles. The European Union's commitment to achieving carbon neutrality by 2050 has spurred investments in EV technology and infrastructure, increasing the demand for electric coolant pumps in both passenger cars and commercial vehicles. With major automakers in Europe focusing heavily on electric mobility, the market for electric coolant pumps is anticipated to experience robust growth in the region.

Asia Pacific, particularly China and Japan, is expected to dominate the global electric coolant pump market due to its significant production of electric vehicles and automotive components. China, the world's largest EV market, is pushing for the rapid development and adoption of EVs, thereby driving the demand for electric coolant pumps. The growing shift toward electric mobility in countries such as Japan, South Korea, and India is also contributing to the market's growth in the region. Meanwhile, Latin America and the Middle East and Africa are expected to see slower growth in the electric coolant pump market, primarily driven by the adoption of hybrid and electric vehicles in select countries, as the automotive industry in these regions continues to evolve.

This report provides an in depth analysis of various factors that impact the dynamics of Global Electric Coolant Pump Market. These factors include; Market Drivers, Restraints and Opportunities Analysis.

Drivers, Restraints and Opportunity Analysis

Drivers:

• Growing Adoption of Electric Vehicles
• Stringent Environmental Regulations
• Demand for Energy-Efficient Solutions -

  The demand for energy-efficient solutions is one of the key drivers propelling the global electric coolant pump market. As the automotive industry transitions toward greener technologies, the focus is on reducing the overall energy consumption of vehicles, especially electric and hybrid models. Electric coolant pumps offer a significant advantage over traditional mechanical pumps, as they consume less energy by operating only when needed and adjusting their speed according to cooling requirements. This leads to better overall vehicle efficiency and helps in extending the range of electric vehicles (EVs) by minimizing energy wastage.

  Automakers are increasingly incorporating electric coolant pumps into their designs to meet both consumer demand for more efficient vehicles and stricter regulatory standards related to fuel efficiency and emissions. In electric and hybrid vehicles, optimizing energy use is critical, and the adoption of electric coolant pumps plays a key role in ensuring that vehicles operate efficiently while keeping temperatures within safe limits for the battery, power electronics, and motors. This trend is

Restraints:

• High Initial Cost of Electric Coolant Pumps
• Limited EV Adoption in Developing Markets
• Technical Challenges in Integration -

  Technical challenges in integration are a significant restraint in the global electric coolant pump market, particularly as manufacturers strive to incorporate these systems into increasingly complex vehicle architectures. One of the primary challenges is the compatibility of electric coolant pumps with existing vehicle designs. Modern vehicles, particularly electric and hybrid models, require seamless integration of components like the cooling system, battery management system, and power electronics. Ensuring that the electric coolant pump works efficiently within these systems, without disrupting the overall vehicle performance, can be technically demanding. For example, integrating the pump with the vehicle’s powertrain requires advanced control systems to ensure optimal pump performance under varying conditions.

  Another challenge lies in the need for high precision and durability in the electric coolant pump’s operation. Given the crucial role of these pumps in managing the temperature of sensitive components such as batteries and power electronics, they must be highly reliable. Ensuring long-term durability under different environmental conditions, such as extreme temperatures or high humidity, adds complexity to the integration process. Additionally, advanced features such as variable

Opportunities:

• Expansion in Emerging EV Markets
• Advancements in Pump Technology
• Increasing Demand for Aftermarket Solutions -

  The increasing demand for aftermarket solutions is driving growth in the global electric coolant pump market. As more vehicles, particularly electric and hybrid models, are produced, there is a rising need for aftermarket parts and services to maintain, repair, or upgrade cooling systems. Consumers and businesses alike are becoming more aware of the importance of cooling systems in enhancing vehicle performance, particularly in maintaining battery and power electronics temperatures. Aftermarket solutions, such as replacement electric coolant pumps and performance-enhancing upgrades, are becoming increasingly popular as vehicle owners look for ways to ensure their vehicles remain efficient and in optimal condition over time.

  One of the key drivers behind this demand is the growing number of electric and hybrid vehicles on the road. These vehicles require specialized maintenance, and as the adoption of electric mobility expands, so too does the need for specialized aftermarket products. The electric coolant pump plays a critical role in the overall performance and longevity of electric and hybrid vehicles, making it a key component for replacement or enhancement in the aftermarket. This has created a lucrative market for aftermarket suppliers that can offer high-quality, reliable electric coolant pumps for a wide range of vehicles.

  Additionally, the increasing trend of vehicle customization also supports the demand for aftermarket electric coolant pumps. As consumers seek to improve the performance of their vehicles or retrofit older models with newer technologies, aftermarket solutions allow for the integration of advanced cooling systems. These solutions are especially popular in the performance vehicle segment, where enthusiasts are focused on optimizing vehicle efficiency, enhancing driving experience, and improving the durability of high-performance engines or battery systems. The growing interest in electric and hybrid vehicle performance upgrades will continue to create significant opportunities for aftermarket suppliers in the electric coolant pump market.

Key players in Global Electric Coolant Pump Market include,

• Rheinmetall Automotive Ag
• Robert Bosch Gmbh
• Aisin Seiki Co., Ltd
• , Continental Ag
• Mahle Gmbh
• Denso Corporation
• Johnson Electric Holdings Limited
• Hanon Systems
• Industrie Saleri Italo S.P.A
• Concentric Ab

In this report, the profile of each market player provides following information:

• Company Overview and Product Portfolio
• Key Developments
• Financial Overview
• Strategies
• Company SWOT Analysis