EV Charging Solution

Application

Description

High-efficiency power semiconductor solution for Level 2 and DC fast charging stations using PineSemi SiC MOSFETs and intelligent power modules.

Core Advantages

Maximum Efficiency SiC MOSFETs deliver up to 99% efficiency, minimizing energy losses and operating costs for charging station operators.
High Power Density High-frequency operation enabled by SiC allows 30-50% reduction in magnetics size and overall charger volume.
Universal Compatibility Wide 200-1000V output range supports all current and future EV models including 800V architectures.

Recommended Bill of Materials (BOM)

Item Part Number Description Quantity Datasheet
1 📄 Download
2 📄 Download

Applications

Level 2 AC charging stations
DC fast charging stations
Fleet charging infrastructure
Workplace charging
Residential charging

Technical Specifications

Power Range
7kW - 350kW
Input Voltage
208-480V AC three-phase
Output Voltage
200-1000V DC
Max Current
500A (at 200V)
Peak Efficiency
99%
Switching Frequency
50-100kHz
Power Factor
>0.99
T H D
<5%

Customer Success Stories

EV Charging Network Operator

Electric Vehicle Infrastructure | 150kW DC fast charging station

Challenge

Customer needed reliable solution for demanding application.

Solution

Implemented 150kW charger using PineSemi SiC MOSFETs with 100kHz switching

Results

Achieved 98.8% efficiency, 25% smaller enclosure, 15% lower cooling requirements

FAE Expert Insights

S

Senior FAE

Applications Engineer

10+ years

Professional Insights

Key considerations: Use SiC for both PFC and DC-DC stages for maximum efficiency; Design for high-frequency operation (50-100kHz) to minimize magnetics size; Implement bidirectional capability for future V2G applications; Design robust thermal management for continuous high-power operation; Include comprehensive grid protection and monitoring. Common pitfalls to avoid: Using silicon devices and accepting lower efficiency; Inadequate thermal design for continuous operation; Not designing for wide output voltage range; Insufficient EMI filtering for grid connection; Missing protection features for safety.

Key Takeaways

  • Use SiC for both PFC and DC-DC stages for maximum efficiency
  • Design for high-frequency operation (50-100kHz) to minimize magnetics size
  • Implement bidirectional capability for future V2G applications
  • Design robust thermal management for continuous high-power operation
  • Include comprehensive grid protection and monitoring

Decision Framework

Decision Framework
Steps:
  1. Evaluate requirements
  2. Compare solutions
  3. Consult FAE

Ready to Implement This Solution?

Contact our FAE team for design support and quotes

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Frequently Asked Questions

What is the efficiency advantage of SiC in EV chargers?

SiC provides significant efficiency advantages in EV chargers: PFC stage efficiency improves from 98% to 99% with SiC

DC-DC stage efficiency improves from 96% to 98% with SiC

Overall system efficiency improvement of 2-3% vs silicon solutions. For a 150kW charger operating 12 hours/day: 2% efficiency gain = 36kWh saved per day

At $0.10/kWh = $3.60/day savings

Annual savings = $1,300+ per charger. For a network of 100 chargers: Annual savings = $130,000+. Additional benefits: Reduced cooling requirements, smaller enclosure, lower installation costs. The SiC cost premium is typically recovered in 1-2 years through energy savings.

Contact us for detailed efficiency analysis and ROI calculations for your charging application.