IGBT TECH

Pushing the Reliability Boundaries of Double-Sided Cooling (DSC) Packaging in HEV/EV Power Modules

Explore how Double-Sided Cooling (DSC), SFM technology, and 70µm ultra-thin wafers redefine the reliability boundaries for compact 200 kVA HEV/EV traction inverters.

Mastering SMD IGBTs on IMS: A Guide to High-Density Welding Power Supplies

Upgrade your high-frequency welding power supplies. Learn how SMD D2Pak IGBTs on Insulated Metal Substrates (IMS) slash stray inductance and improve thermals.

Minimizing Stray Inductance in Traction Converters: A Physical Path to High Power Density

An in-depth engineering guide to minimizing stray inductance in traction converters using laminated busbars and XHP packaging for snubberless, high-density designs.

IGBT Failure Models in Rail Transit: Weibull Distribution and EOL Prediction

Discover IGBT failure mechanisms in rail transit. Learn how to model reliability using Weibull distribution and predict EOL with B10 metrics to ensure 20-year service life.

Peak Performance of Traction Converters: Decoding the XHP™ Platform and .XT Interconnection Technology

Explore how the XHP™ platform and .XT interconnection technology solve CTE mismatch in traction converters, ensuring a 30-year lifespan for railway systems.

The Security Control Hub of Fast Charging Piles: Decoding AURIX™ MCU and Hardware Encryption

Explore how AURIX™ MCUs and embedded HSMs act as the security hub for EV fast chargers, ensuring safe ISO 15118 billing, OTA updates, and component authenticity.

The Vienna Rectifier: Engineering the Backbone of 150 kW+ EV Charging Infrastructure

Explore the Vienna Rectifier topology for 150 kW+ EV charging. Technical analysis of 3-level PFC, low THD, and cost optimization using 600V discrete components.

Unlocking 150 kW+ Charging Efficiency: A Deep Dive into Vienna Rectifier Topologies

Optimize 150 kW+ EV chargers with Vienna Rectifier topology. Deep dive into 3-level PFC efficiency, low harmonics, and cost savings using 600 V discrete components.

Single-Supply Gate Drive for SiC MOSFETs: Feasibility, Limits, and Design Strategies

Meta Description: Can you drive SiC MOSFETs without negative bias? We analyze the feasibility of single-supply (0V turn-off) gate drives, exploring CoolSiC™ threshold stability, Miller effect risks, and the critical "red lines" for reliable design.

Mitigating Parasitic Turn-On (PTO) in SiC MOSFETs: The Critical Role of Miller Capacitance and Threshold Voltage Optimization

Eliminate shoot-through risks in bridge topologies. Deep dive into SiC Parasitic Turn-On mechanisms and how CoolSiC™ technology ensures robust switching without negative bias.