Automotive Energy Storage Solutions
Application
Description
High-performance supercapacitor systems for automotive start-stop, regenerative braking, and mild hybrid applications with AEC-Q200 qualified components.
Core Advantages
Recommended Bill of Materials (BOM)
| Item | Part Number | Description | Quantity | Datasheet |
|---|---|---|---|---|
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Applications
Technical Specifications
Customer Success Stories
European Commercial Vehicle OEM
Commercial Vehicles |
Challenge
Engine start-stop system causing excessive battery wear and unreliable cold-weather starting
Solution
Integrated 16V supercapacitor module to handle engine cranking, reducing battery current by 80%
Results
Asian Automotive Tier 1
Automotive |
Challenge
48V mild hybrid system requiring high-power energy storage for acceleration assist
Solution
48V 11F supercapacitor module with CAN communication for integration with vehicle BMS
Results
FAE Expert Insights
Senior FAE
Applications Engineer
10+ years
Professional Insights
Automotive applications require careful attention to voltage transients, load dump protection, and electromagnetic compatibility. Always include appropriate filtering and protection circuits. Undersizing the supercapacitor for peak power requirements is a common issue. Ensure adequate margin for temperature effects on ESR and capacitance. Implement pre-charge circuits to limit inrush current when connecting to the vehicle electrical system. Use automotive-grade connectors and wiring for all high-current paths. Place supercapacitor modules close to the load to minimize wiring inductance. Consider thermal management in high-temperature engine compartment locations.
Key Takeaways
- Automotive applications require careful attention to voltage transients, load dump protection, and electromagnetic compatibility. Always include appropriate filtering and protection circuits.
- Implement pre-charge circuits to limit inrush current when connecting to the vehicle electrical system. Use automotive-grade connectors and wiring for all high-current paths.
- Place supercapacitor modules close to the load to minimize wiring inductance. Consider thermal management in high-temperature engine compartment locations.
Decision Framework
Steps:
- Analyze application power and energy requirements
- Select appropriate supercapacitor module configuration
- Design charging and protection circuits
- Implement thermal management solution
- Validate system performance under all operating conditions