2MBI200VH-120-50
High-quality igbt modules component designed for reliable performance in industrial and commercial applications.
Product Overview
Description
This igbt modules product offers excellent performance characteristics for various applications.
Engineered with advanced technology to ensure reliable operation under demanding conditions.
Suitable for industrial, automotive, and consumer electronics applications.
Product Series
2-Pack (V-Series)
Primary Application
Industrial inverters
Key Features
- 7th generation trench-gate field-stop technology
- Low Vce(sat) = 1.7V typical at 200A, 125°C
- High short-circuit withstand capability (10μs)
- Built-in NTC thermistor for temperature sensing
- Low inductance package design
- RoHS compliant
Specifications
Applications
Industrial inverters
Industrial automation and control
UPS systems
Electronic system design
Welding machines
Electronic system design
Power supplies
Electronic system design
FAE Expert Insights
"Based on extensive field experience, this product delivers excellent performance across various operating conditions. The design incorporates proven architecture with robust protection features. Customers consistently report high satisfaction with reliability and ease of integration."
Industrial grade, high reliability
— Senior FAE, BeiLuo
Frequently Asked Questions
What is the difference between 6th and 7th generation Fuji IGBT modules?
Fuji's 7th generation IGBT modules offer significant improvements over 6th generation: (1) Lower Vce(sat) - approximately 15-20% reduction in conduction losses. (2) Faster switching - reduced turn-off time and tail current. (3) Better trade-off between conduction and switching losses. (4) Improved safe operating area (SOA). (5) Higher reliability with advanced chip design. (6) Better thermal performance. The 2MBI200VH-120-50 uses 7th generation technology, making it ideal for new designs requiring highest efficiency.
For new designs, always choose 7th generation. For existing 6th generation designs, evaluate upgrade path based on efficiency requirements.
How do I calculate power losses for the 2MBI200VH-120-50?
Power loss calculation for 2MBI200VH-120-50: (1) Conduction loss = Vce(sat) × Ic × duty cycle. At 150A RMS with 1.7V Vce(sat) and 80% modulation: Pcond = 1.7 × 150 × 0.8 = 204W per IGBT, 408W total. (2) Switching loss = (Eon + Eoff) × fsw. At 8kHz with typical Eon=15mJ, Eoff=25mJ: Psw = 40mJ × 8kHz = 320W total. (3) Total loss = 728W. (4) For thermal design with Rth(j-c)=0.08°C/W and Rth(c-s)=0.15°C/W, heatsink thermal resistance should be <0.25°C/W to keep Tj<150°C at 50°C ambient.
Calculate losses at maximum operating conditions; design thermal management for worst-case scenario.
What gate drive voltage is recommended for 2MBI200VH-120-50?
Recommended gate drive for 2MBI200VH-120-50: (1) Turn-on voltage: +15V ± 0.5V for full conduction. (2) Turn-off voltage: -5V to -8V for reliable turn-off and dv/dt immunity. (3) Gate resistance: 3.3Ω to 10Ω depending on switching speed requirements. Lower resistance for faster switching (higher EMI), higher resistance for slower switching (lower EMI). (4) Gate drive power: approximately 2W per IGBT at 8kHz. (5) Use isolated gate drivers with >2500Vrms isolation. (6) Implement active Miller clamp for high dv/dt applications.
Use +15V/-8V gate drive for industrial applications; adjust gate resistance based on EMI requirements.
Can I parallel multiple 2MBI200VH-120-50 modules?
Yes, 2MBI200VH-120-50 modules can be paralleled for higher current: (1) Static current sharing - modules from same production lot have matched Vce(sat) within ±0.1V. (2) Dynamic current sharing - symmetric layout with equal DC bus inductance is critical. (3) Common gate drive - use single gate drive with sufficient current capability (>10A peak). (4) Individual gate resistors - not needed for modules sharing same gate drive. (5) Layout - parallel at DC terminals, not through long PCB traces. (6) Derating - parallel 3 modules for 2.5x current capability. (7) Testing - verify current sharing with Rogowski coils under full load.
Contact our FAE for parallel operation design review and layout recommendations.
What protection features should be implemented?
Recommended protection for 2MBI200VH-120-50: (1) Overcurrent protection - desaturation detection with <5μs response time. (2) Short-circuit protection - soft turn-off to prevent overvoltage spikes. (3) Overvoltage protection - active clamping or TVS diodes for inductive spikes. (4) Overtemperature protection - monitor NTC thermistor, shutdown at 125°C heatsink. (5) Undervoltage lockout - disable gate drive if Vge < 12V. (6) Shoot-through protection - hardware interlock and dead-time control. (7) Gate protection - TVS diodes to protect against overvoltage (>20V).
Implement all protections for reliable operation; desaturation detection is essential for short-circuit protection.
What is the maximum switching frequency for 2MBI200VH-120-50?
Maximum switching frequency depends on thermal constraints: (1) Recommended operating frequency: 2-15kHz for industrial drives. (2) Maximum practical frequency: 20kHz with adequate cooling. (3) Higher frequencies increase switching losses significantly - at 20kHz, switching losses are 2.5x higher than at 8kHz. (4) For high-frequency operation (>15kHz), consider SiC hybrid modules or full SiC solutions. (5) Thermal simulation recommended for frequencies above 10kHz. The 2MBI200VH-120-50 is optimized for 2-10kHz operation typical of industrial motor drives.
Use 2-10kHz for standard industrial drives; consider SiC for frequencies above 15kHz.