Content last revised on September 10, 2026
FP30R06KE3 Infineon EconoPIM™2 Three-Phase 600V 30A IGBT Module
How can industrial drive designers eliminate circuit complexity while maintaining thermal stability in compact 230V to 400V inverter systems? The Infineon FP30R06KE3 provides an all-in-one Power Integrated Module (PIM) architecture that integrates a three-phase input bridge rectifier, a dynamic braking chopper, an integrated NTC thermistor, and a six-pack inverter into a single EconoPIM™2 housing.
UVP: Delivering fully integrated 600V power conversion in a low-inductance footprint to minimize engineering overhead and maximize converter power density.
Core Specs: 600V | 30A (at TC = 80°C) | Low VCE(sat) of 1.45V typ.
Key Benefits: Reduces assembly layout complexity. Optimizes thermal dissipation with copper baseplate.
For low-power motor inverters demanding minimal PCB footprint, this 600V PIM is the optimal choice.
Frequently Asked Technical Questions
Addressing Core Integration and Gate Drive Considerations
What components are integrated inside the FP30R06KE3 module?
It integrates a three-phase input rectifier, a brake chopper stage, a three-phase inverter, and an NTC thermistor.
What is the primary benefit of its integrated PIM topology?
It drastically minimizes PCB trace length and reduces stray inductance compared to discrete topologies.
How does the TrenchStop® IGBT3 technology reduce power dissipation?
The Trench/Fieldstop cell design minimizes collector-emitter saturation voltage (VCE(sat) = 1.45V typ. at 30A) and reduces turn-off tail current, cutting overall switching losses at carrier frequencies up to 20 kHz.
What gate driving precautions should be observed for this 600V module?
Applying a recommended gate emitter voltage of +15V for turn-on ensures full saturation, while implementing proper gate resistance avoids severe dV/dt spikes during switching transients.
Key Parameter Overview
Critical Electrical and Thermal Ratings for Power Stage Design
| Parameter | Symbol | Highlight Specification | Engineering Significance |
|---|---|---|---|
| Collector-Emitter Voltage | VCES | 600 V | Ensures robust breakdown margin for 200V–240V AC and low-voltage DC bus systems |
| Continuous DC Collector Current | IC | 30 A (TC = 80°C) / 40 A (TC = 25°C) | Delivers continuous drive power for sub-4kW industrial induction and servo motors |
| Collector-Emitter Saturation Voltage | VCE(sat) | 1.45 V typ. (Tvj = 25°C) / 1.60 V typ. (Tvj = 125°C) | Minimizes conduction losses during sustained continuous full-load operation |
| Maximum Junction Temperature | Tvj(max) | 175 °C (Operating up to 150 °C) | Provides high thermal headroom under dynamic load cycles |
| Total Power Dissipation per IGBT | Ptot | 125 W (TC = 25°C) | Dictates heatsink contact requirements and enclosure thermal dissipation limits |
| Thermal Resistance, Junction to Case | Rth(j-c) | 1.20 K/W max. per IGBT | Direct copper baseplate ensures rapid thermal transfer into the cooling assembly |
Download the FP30R06KE3 datasheet for detailed specifications and performance curves.
Technical Deep Dive
Silicon Physics and Parasitic Inductance Optimization
The Infineon FP30R06KE3 pairs TrenchStop® IGBT3 technology with Emitter Controlled EmCon3 free-wheeling diodes. In standard planar IGBT structures, conduction efficiency often compromises turn-off switching speed. The vertical trench gate architecture and thin-wafer fieldstop layer function like a dual-chamber valve: they allow dense carrier concentration during conduction to suppress VCE(sat) while permitting swift carrier evacuation during turn-off to curb switching loss.
The physical layout inside the AG-ECONO2C housing places power terminals and internal wire bonds in parallel loops, substantially cancelling opposing magnetic fields. This internal layout minimizes module stray inductance, curbing voltage overshoots during high-speed commutations. For complete design guidelines regarding gate isolation and overvoltage protection, review our 5 practical tips for robust IGBT gate drive design and our analysis on IPM vs discrete IGBT power stage design.
Application Scenarios & Value
Streamlining Motor Drives and Industrial Power Converters
Engineers integrating variable frequency drives (VFDs) into automation machinery frequently encounter severe space constraints inside the control cabinet. Accommodating separate diode bridges, braking transistors, and six discrete output switches consumes extensive board area while introducing parasitic board inductances. The FP30R06KE3 resolves this packaging barrier by embedding the entire power conversion chain into an isolated copper baseplate footprint.
In automated conveyor systems and light CNC machine tools, sudden deceleration induces regenerative energy into the DC bus. The integrated brake chopper switch routes excess energy directly through a dynamic braking resistor, guarding the bus against overvoltage trip faults. Systems requiring higher voltage capability can evaluate the FP25R12KE3 for 1200V bus requirements, or explore the FP30R06W1E3 for alternative housing dimensions.
Strategic Integration Overview
Lifecycle Reliability in Modern Industrial Automation
Deploying integrated IGBT modules like the FP30R06KE3 aligns with industrial decarbonization initiatives by trimming conversion losses in commercial ventilation, pump stations, and robotic axis controls. System architects benefit from proven manufacturing consistency, shortened PCB layout cycles, and integrated thermal tracking via the internal NTC element, reinforcing equipment uptime across multi-year factory operations.
