Blog

A technical white paper analyzing how IGBT modules and Intelligent Power Modules (IPMs) address thermal, electrical, and reliability challenges in high-density compute environments—from SpaceX’s orbital AI clusters to terrestrial power systems.

Explore how quantum computing and AI are driving rising demands for power electronics. Understand why IGBT modules matter in next-gen compute infrastructure.

Discover how AI’s rising power demand is reshaping global energy systems — and why IGBT modules are key to building the intelligent world’s power backbone.

Discover key IGBT market trends for 2025–2026 — global demand recovery, pricing shifts, and how SiC is reshaping the power electronics landscape.

Learn to optimize inverter efficiency by mastering the critical trade-off between Vce(sat) (conduction loss) and Eon/Eoff (switching loss) in 1200V IGBTs. This guide helps you select the ideal component for your industrial application.

A practical guide for engineers on IGBT thermal management. Go beyond datasheet ratings to understand module packaging, thermal resistance (Rth), and follow a step-by-step process for heatsink design to ensure system reliability and prevent premature failure.

Explore the critical trade-offs between Intelligent Power Modules (IPM) and discrete IGBT solutions. This comprehensive analysis compares performance, total system cost, and reliability to help engineers select the optimal power stage architecture for their design.

Learn to reliably parallel IGBT modules. This guide covers solving current sharing imbalance caused by Vce(sat) mismatch and stray inductance for robust high-power inverter design.

Explore the trade-offs between an integrated Intelligent Power Module (IPM) and a discrete IGBT + driver solution. This guide provides a decision framework analyzing system cost, reliability, and performance to help you choose the optimal architecture for your power electronics design.

A practical engineer's guide to IGBT thermal management. Learn how to move beyond datasheet Rth(j-c), accurately calculate power loss, and select the correct heatsink to ensure robust system reliability.