IPP075N15N3G
150 V / 100 A OptiMOS 3 MOSFET with 7.5 mOhm Rds(on) for 48 V distribution and synchronous rectification.
150 V / 100 A OptiMOS 3 power MOSFET with 7.5 mΩ typical Rds(on), designed for synchronous rectification, 48 V distribution and battery management applications.
FAE Professional Review
The IPP075N15N3G is the part we spec for 48 V rails and mid-current synchronous rectification. At 7.5 mΩ typical, conduction losses stay low at 20-30 A continuous, and the TO-220 package keeps thermal management simple. For higher-current boards, consider the DPAK and D2PAK siblings of the same die to reduce mounting resistance.
| Parameter | Value |
|---|---|
| Vds | 150 V |
| Id | 100 A |
| Rds(on) | 7.5 mΩ |
| Package | TO-220-3 |
| Temperature | -55 °C to +175 °C |
Application Circuits
48 V power distribution
Reference circuits and application schematics for 48 V power distribution are available from our FAE team.
Synchronous rectification
Reference circuits and application schematics for Synchronous rectification are available from our FAE team.
Battery management systems
Reference circuits and application schematics for Battery management systems are available from our FAE team.
Need a reference schematic or design review? Our FAE engineers can share verified circuits and layout guidance for this part.
Related Documents
Alternative Part Numbers
| Model | Package | Note | Action |
|---|---|---|---|
| IPP60R099P6 | TO-220-3 | 600 V alternative for mains-fed power stages | View |
Complementary Part Numbers
| Model | Package | Note | Action |
|---|---|---|---|
| XMC4800-F100F1024AA | LQFP-100 | Gate drive and control MCU | View |
| TLE4972-AE35S5 | PG-TDSO-16 | Load current sensing | View |
Recommended Complementary Products
Frequently Asked Questions
What is the IPP075N15N3G best used for?
It is a 150 V / 100 A OptiMOS 3 MOSFET with 7.5 mΩ typical Rds(on), aimed at 48 V power distribution, synchronous rectification and battery-management systems. Low Rds(on) keeps conduction loss small at 20-30 A continuous.
For higher-current boards, consider the DPAK and D2PAK siblings of the same die.
How much current can I push through it in practice?
The 100 A rating assumes an ideal case temperature; your real limit depends on heatsinking, PCB copper and airflow. Derate for the actual thermal path and keep junction temperature within limits.
We can help you calculate a realistic continuous current for your board.
How do I drive the gate efficiently?
Its low gate charge suits fast switching, but gate-loop inductance and resistor choice still set dv/dt and ringing. Keep the driver close and use a resistor tuned to your EMI target.
Our MOSFET troubleshooting guide covers common gate-drive problems.
How does it compare with the IPP60R099P6?
The IPP075N15N3G is a 150 V OptiMOS device for low-voltage, high-current stages, while the IPP60R099P6 is a 600 V CoolMOS device for mains-connected PFC and LLC stages. They serve different voltage domains.
Pick the voltage class your rail needs.
What layout practices keep efficiency high?
Use wide copper for the drain and source paths, minimize the hot loop between input capacitance and the device, and provide a solid ground return. Good layout often matters more than a marginal Rds(on) difference.
Request a layout review from our FAE team.
Is the part genuine and in stock?
BeiLuo supplies factory-traceable IPP075N15N3G parts with import, origin and RoHS documents on every order. Availability is confirmed per request and the datasheet downloads here.
Request a quote for current stock and lead time.