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The SANTO UFA range of self-regulating heating cables is mainly used for frost protection of pipes and vessels but can also be used to maintain processes up to 65°C. These heating cables are available...
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Electric vehicles depend on battery systems that must operate safely and efficiently across a wide range of temperatures. In cold environments, however, low temperature can reduce battery output, slow charging, increase internal resistance, and affect the driving range of the vehicle. A silicone rubber car battery heater provides a practical way to manage these conditions by delivering controlled heat directly to the battery pack or selected battery modules.
Designed for new energy electric vehicles, this flexible heating solution can be customized according to the battery structure, available installation space, required heating power, operating temperature, and control strategy. Unlike rigid heating components that may be difficult to install on curved or irregular surfaces, silicone rubber heaters can be manufactured in different shapes and sizes to closely match the battery housing.
The product is suitable for applications where stable, uniform, and controllable heat is required. It can be supplied with optional wires, adhesive layers, aluminum plates, thermal-conductive materials, insulation materials, temperature controllers, and temperature sensors. This flexibility allows the heater to be integrated into a complete thermal management system rather than used as an isolated heating component.
Santo Thermal Control Technology Co., Ltd. has developed heating products for industrial, energy, construction, transportation, and electric heating applications. With more than 35 years of industry experience, the company combines product design, material selection, manufacturing, testing, and technical support to provide customized heating solutions for battery manufacturers, vehicle suppliers, system integrators, and other customers.
Silicone rubber car battery heater
Content
The battery is one of the most important systems in an electric vehicle. It supplies energy to the traction motor, onboard systems, heating and cooling equipment, and charging circuits. Its performance is influenced by temperature, load, charging speed, state of charge, cell chemistry, and operating conditions.
When the temperature falls, the electrochemical reactions inside a battery become slower. The battery may show higher internal resistance and reduced available power. Drivers may notice lower acceleration performance, reduced regenerative braking, slower charging, or a temporary decrease in driving range. These effects can be especially significant when the battery is exposed to prolonged cold weather.
Charging a cold battery at a high current can also create undesirable conditions. Depending on the battery chemistry and battery management system, charging at a low temperature may increase the risk of lithium plating or other forms of cell stress. For this reason, many electric vehicles use a thermal management strategy that warms the battery before or during charging.
A silicone rubber car battery heater is one component that can support this strategy. The heater transfers heat to the battery enclosure, module, cell group, or another designated surface. When combined with a sensor and temperature controller, it can help the system maintain a suitable temperature range without unnecessary energy consumption.
In cold climates, the battery may need to provide high power immediately after the vehicle is started. Preheating can improve the battery’s readiness and help reduce the performance gap between cold and moderate operating conditions. A heater can be activated during vehicle preconditioning, while the vehicle is connected to a charger, or when the battery management system identifies a low-temperature condition.
Fast charging systems are designed to deliver high electrical power in a limited period. However, the battery must be within an appropriate temperature range to accept this power safely and efficiently. A battery heater can assist with temperature preparation before charging, helping the battery reach a more suitable condition for the charging process.
Repeated operation at unsuitable temperatures may affect battery efficiency and long-term performance. A controlled heating system can reduce the duration and severity of low-temperature operation. By supporting a more stable thermal environment, the heater may help the battery management system maintain more predictable operating conditions.
The silicone rubber car battery heater is a flexible electric heating element designed for power battery applications. It is manufactured from silicone rubber and can be configured to match the customer’s requirements for dimensions, shape, voltage, wattage, heating area, mounting method, and control accessories.
The heater is normally designed as a thin, lightweight component. Its flexibility allows it to conform to flat, curved, or slightly irregular surfaces, depending on the design. This is valuable in electric vehicle battery packs, where space is limited and the available installation area may include corners, covers, mounting sections, and structural reinforcements.
The standard product information includes a minimum thickness of 1.0 millimeter, a heating temperature of up to 200 degrees Celsius, a power density of up to 3 watts per square centimeter, and insulation resistance of at least 100 megohms when tested at 1000 volts. Actual operating parameters should be confirmed through engineering evaluation and application-specific testing.
| Parameter | Available Specification | Application Significance |
|---|---|---|
| Product type | Silicone rubber car battery heater | Flexible heating for electric vehicle power batteries |
| Minimum thickness | 1.0 mm | Supports installation where space is restricted |
| Maximum heating temperature | Up to 200 °C | Provides a broad design range for controlled heating applications |
| Maximum power density | Up to 3 W/cm² | Allows the heating output to be matched to the thermal design |
| Insulation resistance | At least 100 MΩ at 1000 V | Supports electrical insulation requirements |
| Optional accessories | Wires, adhesive layer, aluminum plate, thermal-conductive material, insulation, controller, sensor | Enables a more complete and customized heating assembly |
| Design method | Customized according to customer requirements | Accommodates different battery structures and vehicle platforms |
The table presents general product capabilities rather than a universal fixed configuration. A final heater design should be determined by the customer’s battery model, thermal simulation, installation method, electrical system, control requirements, and applicable safety standards.
A silicone rubber heater generally consists of a resistive heating circuit embedded or laminated within an electrically insulating silicone rubber structure. When electrical current passes through the resistance element, electrical energy is converted into heat. The heat then transfers through the surface of the heater into the battery housing or another target component.
The resistance circuit can be designed to distribute heat over a defined area. This helps reduce hot spots and provides more uniform temperature coverage than a small point heater. The resistance pattern, lead position, heating zone, and power output can be adjusted during the design stage.
Silicone rubber provides several useful properties for this type of product. It is flexible, lightweight, and suitable for thin heater construction. It can also provide electrical insulation and maintain useful performance across a relatively wide range of temperatures. In a properly engineered assembly, the silicone structure helps protect the heating element from the surrounding environment and supports stable contact with the heated surface.
Heat transfer performance depends on the contact between the heater and the battery assembly. An optional adhesive layer can assist with positioning and surface contact. An aluminum plate may be added to spread heat across a wider area, while thermal-conductive materials can help reduce thermal resistance between the heater and the battery housing.
Insulation materials may be used on the opposite side of the heater to guide heat toward the battery and reduce unwanted heat loss. The correct insulation design depends on the battery enclosure, available space, surrounding components, ventilation requirements, and the expected operating temperature.
Temperature control is an important part of a battery heating system. The heater may be connected to a temperature sensor positioned on the battery housing, near a module, or at another location selected by the system designer. The sensor provides feedback to a controller or battery management system.
A controller can activate or deactivate the heater according to temperature thresholds, charging status, vehicle operating mode, battery state, or preconditioning requirements. This approach helps prevent unnecessary heating and supports more efficient energy use. The controller may be supplied as an optional accessory or integrated into the customer’s existing thermal management system.
One of the main advantages of silicone rubber heaters is their adaptability. The product can be manufactured in different lengths, widths, outlines, hole patterns, lead positions, and heating zones. This is useful when a standard rectangular heater cannot cover the required area or when the battery structure includes mounting holes and irregular edges.
Custom sizing also helps reduce unused space. Instead of installing multiple small heaters with separate wiring, a purpose-designed heater may cover the required surface with a more organized layout. This can simplify assembly and support a cleaner battery pack design.
With a minimum thickness of 1.0 millimeter, the heater can be considered for applications where installation clearance is limited. Thin construction may help engineers preserve space for battery cells, cooling channels, insulation, protective plates, connectors, and structural components.
The final thickness can vary according to the selected materials, voltage, power, mechanical protection, adhesive layer, sensor arrangement, and insulation requirements. A thin design should still be evaluated for durability, heat transfer, electrical insulation, and assembly handling.
A properly designed flexible heater can distribute heat over a broad area. Uniform heating is important for battery packs because concentrated heating can create local temperature differences. Large thermal gradients may affect cell balancing, charging behavior, and the response of the battery management system.
The heating pattern can be designed according to the battery geometry and the location of sensitive areas. Thermal simulation and prototype testing can help identify the best resistance layout and power distribution.
The stated heating temperature can reach up to 200 degrees Celsius, providing a broad design range for different industrial and vehicle heating applications. This value refers to product capability and does not mean that a battery should be operated at that temperature. The actual battery heating set point must remain within the safe operating range specified by the battery manufacturer and vehicle system designer.
The heater can be supplied with sensors, controllers, insulation, thermal-conductive components, and connection wires. This makes it possible to develop an integrated heating assembly rather than treating the heater as a basic resistance strip.
Integration can support several operating modes, including battery preheating before driving, preheating before fast charging, low-temperature protection, standby temperature maintenance, and controlled heating during laboratory testing.
The stated insulation resistance is at least 100 megohms at a test voltage of 1000 volts. High insulation resistance is important in high-voltage battery environments, where the heater must be electrically separated from the battery enclosure and other conductive parts.
Insulation performance depends on the full assembly, including the heater body, wires, terminals, adhesive, protective layers, connectors, and installation environment. Therefore, final validation should be performed on the complete heater and battery integration rather than on the heater material alone.
Electric vehicle manufacturers can choose from several approaches to battery heating. These may include liquid coolant heating, air heating, rigid plate heaters, cartridge heaters, resistance films, and flexible silicone rubber heaters. Each method has a different installation principle and performance profile.
Air heating systems require airflow paths, fans, ducts, and suitable spaces around the battery pack. They may be useful for certain enclosures, but the air must reach the target surfaces effectively. In a compact battery pack, airflow distribution can be difficult and may lead to temperature differences.
A silicone rubber heater provides direct contact heating at a selected surface. It does not require a large air duct or circulation fan at the heating location. This can help simplify installation where the battery structure is compact or sealed.
Liquid thermal management systems can provide efficient cooling and heating through channels or plates. However, they require pumps, hoses, valves, coolant, seals, and leak-control measures. A flexible electric heater can be used as a simpler supplementary heating component or as an independent heating solution for selected battery structures.
In applications where a liquid circuit is not available, a silicone rubber heater can provide localized or surface-based heating. It may also be used alongside liquid thermal management when additional preheating capacity is required.
Rigid heating plates may provide good mechanical support and heat spreading, but they are usually limited by their fixed shape. If the battery pack has a curved surface, stepped geometry, or restricted installation clearance, a rigid plate may require additional brackets or structural modifications.
A silicone rubber heater can be produced in a custom outline and may conform more closely to the installation surface. Aluminum plates and thermal-conductive materials can be added when greater rigidity or heat spreading is required, allowing the design to combine flexibility with structural support.
Standard heaters are convenient for basic applications, but their dimensions, wattage, lead positions, and mounting methods may not match a vehicle battery pack. A mismatch can create unused heating zones, difficult wiring, uneven temperature distribution, or additional assembly work.
Custom manufacturing allows the heater to be designed around the battery rather than forcing the battery design to accommodate an unsuitable heater. This is particularly valuable for original equipment manufacturers, battery pack developers, and customers with different vehicle platforms.
Santo Thermal Control Technology Co., Ltd. can customize heater products according to material, size, shape, power, and performance requirements. This approach supports both prototype development and volume production, subject to technical confirmation and production evaluation.
The heater can be designed for a specific battery cover, module surface, or enclosure section. The outline may include rounded corners, cutouts, openings, mounting holes, and other features required for mechanical integration. Accurate drawings or three-dimensional models can help reduce design errors during sampling.
Voltage and power should be selected according to the vehicle electrical architecture and the available heating circuit. The required power depends on battery mass, insulation, ambient temperature, desired warm-up time, contact quality, heat loss, and thermal management strategy.
Power density can be designed up to 3 watts per square centimeter, while the total power depends on the active heating area. A larger heater does not necessarily require a higher power density. In many applications, a larger area with moderate power density can provide more uniform heating and reduce local temperature concentration.
Some battery packs may benefit from multiple heating zones. For example, one zone may be positioned beneath a central module while another is located near a region that loses heat more rapidly. Separate zones can be controlled independently or operated through a common controller, depending on the system requirements.
Wire type, length, exit direction, terminal design, connector selection, and protective sleeving can be considered during customization. Proper lead routing is important because electric vehicle battery packs experience vibration, temperature changes, assembly movement, and limited space.
The wire exit position should be coordinated with the battery enclosure, sealing area, service disconnect, high-voltage routing, and low-voltage control wiring. A well-designed lead arrangement can simplify assembly and reduce stress on the heater body.
An adhesive layer can be added to help attach the heater to a suitable surface. Adhesive selection should consider temperature, surface energy, cleanliness, aging, removability, and compatibility with the battery enclosure material.
For applications requiring mechanical support or improved heat spreading, an aluminum plate can be included. Thermal-conductive materials and insulation materials can also be selected according to the desired heat flow and assembly structure.
The performance of a silicone rubber car battery heater depends not only on the material but also on the manufacturing process. Dimensional accuracy, resistance consistency, insulation quality, lead attachment, lamination, curing, and final inspection all influence the reliability of the finished product.
Manufacturing begins with an evaluation of the customer’s requirements. Engineers review the battery surface, installation space, desired heating temperature, rated voltage, power target, control method, mechanical environment, and expected production volume.
At this stage, engineers can identify potential issues such as sharp corners, excessive bending, restricted lead exits, insufficient heat dissipation, incompatible adhesives, or locations where the heater may contact conductive structures. Early design review reduces the risk of costly changes after tooling or prototype production.
Silicone rubber, resistance materials, insulation layers, wires, adhesives, protective films, aluminum components, and thermal interface materials must be selected according to the operating conditions. Material selection is affected by temperature, flexibility, chemical exposure, vibration, moisture, voltage, and expected service life.
The silicone rubber body must provide suitable flexibility and electrical insulation. The resistance element must deliver stable electrical performance. Adhesive and thermal interface materials must maintain contact under the expected temperature and mechanical conditions.
The resistance circuit is prepared according to the heater’s dimensions, voltage, wattage, and heating pattern. The circuit must provide the intended resistance value and distribute heat across the active area.
Resistance consistency is important because variations can affect current, power, and surface temperature. Production controls may include resistance measurement, visual inspection, dimensional checking, and verification of the lead connection.
The heating element is combined with the silicone rubber and insulation layers through a controlled manufacturing process. The purpose is to create a stable, well-insulated structure that protects the resistance circuit and provides consistent heat transfer.
Careful control of lamination or encapsulation helps reduce air pockets, wrinkles, uneven thickness, and weak bonding areas. The finished surface should be inspected for defects that could affect installation, insulation, or thermal performance.
Silicone rubber products require appropriate curing conditions. Temperature, time, pressure, and material preparation can influence the final properties of the heater. Controlled curing supports dimensional stability and helps the heater maintain its designed shape and insulation characteristics.
Electrical tests may include resistance measurement, insulation resistance testing, dielectric strength testing, continuity inspection, and connection verification. The stated insulation resistance specification is at least 100 megohms at 1000 volts, but the final test plan should be agreed upon according to the customer’s application and relevant standards.
Thermal testing can be used to evaluate heat-up time, temperature distribution, steady-state temperature, power consumption, and response to the controller. Testing on a representative battery plate or enclosure section is more informative than testing the heater in isolation because contact and heat dissipation strongly influence performance.
Finished heaters should be checked for length, width, thickness, hole position, lead location, surface quality, markings, and accessory completeness. Dimensional accuracy is particularly important when the heater must fit inside a battery pack with limited clearance.
Santo Thermal Control Technology Co., Ltd. integrates research, design, production, manufacturing, and sales. Its product range includes self-limiting heating cables, constant-power heating belts, silicone rubber heating belts, glass fiber heating belts, MI cables, snow melting cables, electric heating wires, tracked heaters, and heating accessories.
This broad product background is relevant to battery heating because electric vehicle thermal management often requires more than one type of heating component. A company familiar with different heating technologies can help customers evaluate flexible heaters, cable-based heating, sensors, controllers, insulation, and thermal-conductive materials as part of a wider system.
The company reports more than 35 years of industry experience, annual output exceeding 10,000 units or product sets, more than 2,000 distributors, and business coverage in more than 85 areas. These figures indicate experience in serving different markets and coordinating production for varied heating requirements.
The company is located in Jiangsu Province, an area associated with China’s electric heating belt industry. It has established manufacturing and testing capabilities and has invested in additional factory construction and a product simulation testing laboratory. Such facilities can support product development, sample evaluation, process improvement, and production inspection.
The company has passed ISO9001 quality system certification, and its products have obtained national CCC certification where applicable. Certification does not replace application-specific validation, but a documented quality management system can help organize purchasing, production, inspection, traceability, corrective action, and customer service.
Santo also reports cooperation in product research with Harvard University in the United States and a history of developing patented heating technologies. Its development history includes work on self-limiting temperature nano far-infrared heating products, carbon fiber parallel heating cables, high-temperature pipeline heating, and other thermal control products.
In passenger electric vehicles, the heater can support battery preconditioning before driving or charging. It may be installed beneath a battery enclosure, near selected modules, or in another location determined by the vehicle thermal design.
Electric buses, delivery vehicles, refrigerated transport vehicles, and utility vehicles may operate for long periods in cold climates. A battery heater can help maintain operating readiness during scheduled charging, overnight parking, or repeated start-stop duty cycles.
Electric trucks and specialized vehicles may have larger battery systems and more demanding duty cycles. Custom heating zones can be considered when the pack has multiple sections or when different parts of the enclosure experience different thermal conditions.
Battery swapping systems require battery packs to remain ready for service. A heating solution can be integrated into a charging station, storage system, or battery pack to support appropriate temperature conditions before installation in a vehicle.
Research laboratories and battery manufacturers may use silicone rubber heaters for cell, module, and pack testing. The customizable shape and power allow engineers to reproduce different thermal conditions during performance evaluation, charging studies, aging tests, and environmental simulations.
The heater should be designed only after the battery structure and thermal objectives are understood. Important information includes battery dimensions, material of the contact surface, available clearance, ambient temperature, target heating time, operating voltage, maximum allowable temperature, control method, and expected vibration or moisture exposure.
The contact surface should be clean, smooth, and free from contamination that could reduce adhesion or create air gaps. If an adhesive layer is used, the installation process should follow the specified surface preparation and pressure requirements.
The heater should not be sharply folded, pierced, cut, or compressed unless the design specifically allows it. Sharp bends can damage the internal resistance circuit or insulation layers. Lead wires should be routed with appropriate bend radius and strain relief.
Thermal sensors should be positioned where they represent the temperature of the battery area that requires control. A sensor placed too far from the heated surface may respond slowly, while a sensor located directly over a hot spot may not represent the average battery temperature.
Engineers should also consider thermal expansion, enclosure tolerances, vibration, condensation, sealing, service access, and electromagnetic compatibility. The complete installation should be tested under realistic conditions, including charging, driving, parking, and low-temperature exposure.
A battery heater must be treated as part of a high-energy electrical system. The heater’s voltage, current, insulation, connectors, fuse protection, control logic, and grounding arrangement should be reviewed by qualified engineers.
Temperature control is essential. The maximum product heating capability is not the same as the permitted battery temperature. The vehicle battery manufacturer should define safe temperature limits, and the heater should be controlled accordingly.
Over-temperature protection may include a temperature sensor, independent thermal switch, controller software, fuse, current protection, or a combination of these measures. Redundant protection may be appropriate for high-voltage or high-power applications.
Testing should include normal operation, sensor failure, controller failure, open circuit, short circuit, abnormal voltage, loss of contact, blocked heat dissipation, vibration, humidity, and repeated thermal cycling. The test plan should reflect the actual vehicle environment and applicable industry requirements.
Electrical insulation should be verified before and after environmental testing. Mechanical inspection should confirm that the heater has not cracked, delaminated, shifted, or developed damaged lead connections.
For original equipment manufacturers, a custom silicone rubber heater can reduce the compromises associated with standard components. The product can be matched to the battery pack during the early design stage, allowing the heating area, power, wiring, and sensor location to be considered alongside the enclosure and thermal management system.
For battery pack integrators, customization can simplify installation across different battery platforms. A common heating concept can be adapted to several outlines or module configurations while preserving the basic electrical and control strategy.
For distributors and engineering service providers, the broad product range of Santo Thermal Control Technology Co., Ltd. creates opportunities to source related heating cables, controllers, sensors, insulation components, and accessories from an experienced heating product manufacturer.
For end users operating vehicles in cold regions, a properly designed heater can support greater operating consistency. It may reduce the impact of low temperature on battery performance and help the vehicle reach an appropriate thermal condition before demanding operation or fast charging.
Before requesting a quotation or prototype, customers should prepare the battery heater requirements as completely as possible. The following information can help engineers develop a practical design.
Providing drawings, photographs, three-dimensional files, thermal data, and installation descriptions can improve design accuracy. A prototype should be evaluated on a representative surface before volume production begins.
It is a flexible electric heating component made with silicone rubber and a resistance circuit. It is designed to warm a vehicle power battery or a selected battery surface in order to reduce the effects of low-temperature operation.
The heater is intended for new energy electric vehicles and may be adapted for passenger vehicles, commercial vehicles, electric trucks, special-purpose vehicles, battery systems, and battery testing equipment. Final suitability depends on the battery design and electrical system.
Yes. The product can be customized in different materials, sizes, shapes, powers, and performance configurations. Custom outlines may include holes, cutouts, rounded corners, and specific lead locations.
The stated minimum thickness is 1.0 millimeter. Actual thickness depends on the electrical design, insulation layers, adhesive, protective materials, and mechanical requirements.
The product specification indicates a heating temperature of up to 200 degrees Celsius. This is a product capability and not a recommended battery operating temperature. The actual control temperature must be determined by the battery and vehicle design.
The stated power density is up to 3 watts per square centimeter. The appropriate value should be selected according to the battery surface, heat transfer conditions, desired warm-up time, and temperature uniformity requirements.
Yes. A temperature sensor is one of the optional accessories. Sensor type, cable length, installation position, and control interface should be confirmed during the engineering stage.
Yes. An adhesive layer can be supplied when it is compatible with the battery enclosure surface and the expected operating conditions. Surface preparation and installation procedures should be confirmed before production.
An aluminum plate can provide mechanical support and improve heat spreading across the installation area. It may be useful when the battery surface requires a more rigid or thermally conductive assembly.
The stated insulation resistance is at least 100 megohms at 1000 volts. The complete heater assembly should be tested according to the customer’s electrical requirements, including wires, terminals, protective layers, and installation conditions.
It may be used as a supplementary or independent heating component, depending on the battery pack design. The interaction between the heater, cooling plate, coolant circuit, insulation, and control system must be evaluated by qualified engineers.
It can be controlled by a temperature controller, sensor feedback, vehicle control unit, battery management system, or another approved control strategy. The selected method should include suitable over-temperature and electrical protection.
Customers should provide the required dimensions, shape, voltage, power, heating temperature, heating time, wire arrangement, sensor requirements, mounting method, ambient conditions, and relevant drawings or samples.
No. The heater is a thermal component and does not replace the battery management system. It should operate under the control and protection strategy established for the complete vehicle or battery pack.
The silicone rubber car battery heater is a flexible and customizable solution for reducing the impact of cold temperatures on electric vehicle power batteries. Its thin structure, adaptable shape, broad design temperature capability, optional accessories, and high insulation resistance make it suitable for a variety of battery heating applications.
Compared with air heating, rigid plates, and standard off-the-shelf products, a custom silicone rubber heater can provide closer surface integration and more efficient use of limited installation space. It can be designed with specific heating zones, wiring, sensors, controllers, adhesives, aluminum plates, thermal-conductive materials, and insulation layers.
The value of the product depends on more than the heater itself. Accurate engineering, material selection, manufacturing control, thermal testing, electrical inspection, and complete system validation are all necessary for dependable operation. Santo Thermal Control Technology Co., Ltd. combines long-term electric heating experience, a broad product portfolio, customization capability, quality management, and research investment to support customers developing battery thermal solutions.
For vehicle manufacturers, battery pack integrators, distributors, and research organizations, the next step is to define the battery’s thermal objectives and installation conditions. With those requirements, a suitable heater structure can be developed and tested to support cold-weather performance, charging readiness, and reliable operation of new energy electric vehicles.
1. Santo Thermal Control Technology Co., Ltd. Product specifications for silicone rubber car battery heaters.
2. Santo Thermal Control Technology Co., Ltd. Corporate information, manufacturing capabilities, product range, and development history.
3. International Organization for Standardization. Quality management systems and general quality assurance principles.
4. Automotive battery manufacturers’ technical guidance on low-temperature operation, charging, and thermal management.
5. Battery thermal management engineering literature covering heat transfer, temperature uniformity, battery preconditioning, and cold-weather performance.
6. Electric vehicle engineering references covering battery management systems, high-voltage insulation, charging control, and vehicle thermal integration.
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