Kategorie: Blog

Discover how adaptive dead-time control improves inverter efficiency by reducing switching losses, preventing shoot-through, and compensating for power module parasitics. Learn practical tuning methods, waveform analysis techniques, and gate driver strategies for IGBT and SiC MOSFET applications.

Learn how single-lot traceability improves the reliability of power modules by linking wafer genealogy, raw materials, assembly records, and final testing. Discover the role of SLDC, Device History Records (DHR), and manufacturing controls in reducing recall scope, supporting root-cause analysis, and ensuring compliance for high-reliability applications such as EVs, renewable energy, rail, and industrial power systems.

Learn the key differences between short-circuit current and surge current in power semiconductors. Discover how to interpret SOA and RBSOA, understand short-circuit withstand time, and apply DESAT detection, soft turn-off, and layout best practices to improve IGBT and SiC MOSFET reliability.

Press-pack IGBTs are becoming a strategic choice for HVDC, renewable energy, rail traction, and industrial power systems in 2026. Learn how bond-wire-free architecture, double-sided cooling, standardized footprints, and second-source strategies improve reliability, reduce redesign risk, and strengthen long-term supply chain resilience.

IEC 60947 is the key international standard for low-voltage switchgear and controlgear, providing the foundation for safe, reliable intelligent Battery Distribution Units (iBDUs). This guide explains compliance requirements, short-circuit performance, fault isolation, and datasheet evaluation to help engineers design and source dependable DC power systems.

Short-circuit protection is essential for modern power semiconductors such as SiC MOSFETs and IGBTs. This guide explains key protection techniques, including DESAT detection, soft turn-off, active gate control, and current sensing, while offering practical design strategies to improve reliability, reduce failure risk, and optimize high-voltage power systems.

Wählen Sie die richtige SiC MOSFET-Spannungsklasse für Ihren Gleichstrombus. Vergleichen Sie 650V, 1200V und 1700V Module, um Effizienz und Zuverlässigkeit zu verbessern.

Vergleichen Sie das Design von Half-Bridge- und Full-Bridge-Leistungsschaltungen, um Effizienz, thermische Leistung und Kosten zu verbessern. Wählen Sie noch heute die richtige Topologie.

Reduzieren Sie das Redesign-Risiko mit Power-Modul-Footprint-Standards. Erfahren Sie, wie Pin-kompatible Ersatzmodule die Zweitbeschaffung unterstützen und PCB-Neuentwicklungen überflüssig machen.