IXFH24N100

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Ultra-high-voltage N-channel MOSFET with 1000V rating and 385mΩ on-resistance for high-voltage power supplies.

Product Overview

Description

The IXFH24N100 is an ultra-high-voltage 1000V N-channel power MOSFET designed for high-voltage power conversion applications. With 385mΩ maximum on-resistance and 24A continuous current capability, it provides reliable switching for high-voltage systems.

This MOSFET features IXYS's advanced planar technology optimized for high-voltage operation with excellent avalanche ruggedness. The TO-247 package provides robust thermal management for high-voltage applications.

Ideal for offline power supplies, PFC circuits, solar inverters, and high-voltage DC-DC converters requiring 1000V+ voltage capability.

Product Series

IXFH

Primary Application

Offline AC-DC power supplies

Key Features

  • Ultra-high 1000V voltage rating
  • Advanced planar technology for high-voltage operation
  • Robust 420mJ avalanche energy rating
  • Fast switching for high-frequency operation
  • Low gate charge for efficient drive
  • TO-247 package for reliable thermal management

Specifications

Voltage Rating 1000V
Continuous Current 24A @ 25°C
Rds(on) max 385mΩ @ 10Vgs
Gate Charge 63nC
Input Capacitance 2800pF
Rise Time 22ns
Fall Time 18ns
Avalanche Energy 420mJ
Package TO-247

Applications

Offline AC-DC power supplies

Electronic system design

Power factor correction (PFC) circuits

Electronic system design

Solar inverters

Renewable energy systems

High-voltage DC-DC converters

Power conversion and supply

Industrial power systems

Industrial automation and control

Documents & Resources

FAE Expert Insights

M

"The IXFH24N100 is an excellent choice for high-voltage applications requiring 1000V capability. I've used this MOSFET in PFC circuits and offline power supplies with excellent results. The 1000V rating provides adequate margin for universal input (85-265VAC) applications with PFC. While the Rds(on) of 385mΩ seems high compared to lower voltage devices, it's very competitive for 1000V rating. The avalanche capability is particularly important in high-voltage applications where energy stored in inductances is significant. For PFC applications, this device can handle 500-600W with proper heatsinking. I recommend using 15V gate drive and proper snubbers to minimize switching losses."

Excellent 1000V MOSFET for high-voltage power supplies and PFC applications

— Michael Chen, BeiLuo

Frequently Asked Questions

What applications require 1000V MOSFETs?

1000V MOSFETs like IXFH24N100 are required for: (1) Universal input offline power supplies (85-265VAC) with active PFC - PFC output is typically 380-400VDC, requiring 1000V devices for switching; (2) Three-phase 480VAC input systems - rectified voltage is 680VDC; (3) Solar inverters with high DC link voltages; (4) High-voltage DC-DC converters; (5) Industrial motor drives with 600V+ DC bus. The 1000V rating provides necessary margin for voltage spikes and transients in these high-voltage applications. For lower voltage systems (single-phase 230VAC or 48V DC), lower voltage MOSFETs with better Rds(on) are more appropriate.

Use for universal input PFC, three-phase systems, and high-voltage DC applications.

1000V MOSFET applications PFC power supply high voltage power conversion
How do I minimize switching losses in high-voltage applications?

To minimize switching losses with IXFH24N100 in high-voltage applications: (1) Gate drive - use strong gate driver (2A+) with optimized gate resistor (10-22Ω); (2) Snubbers - use RC snubbers to reduce voltage overshoot and dV/dt; (3) Layout - minimize loop inductance to reduce ringing; (4) Soft switching - use resonant or quasi-resonant topologies if possible; (5) Switching frequency - operate at moderate frequencies (50-100kHz) to balance losses with magnetics size. At 400V bus voltage, switching losses can be significant - proper snubber design is critical. The relatively low gate charge (63nC) helps minimize gate drive losses.

Use strong gate drive, proper snubbers, and consider soft-switching topologies for high-voltage applications.

high voltage switching switching loss reduction snubber design