
PCIM Europe
Product Highlights at PCIM Europe for Power Electronic Applications
Condura®: Heraeus Electronics presents high reliable ground conditions for your specific requirements

- Condura®.classic (DCB-Al2O3)
Time-tested standard for power electronic applications - Condura®.extra (DCB-ZTA)
Alumina DCB for more robustness to improve module reliability and processability - Condura®.prime (AMB-Si3N4)
Highest mechanical robustness and outstanding thermal conductivity - Condura®+
Choose your Plus out of 20 options to maximize your success in power electronics module production
DTS®: Get the most out of your power module with Heraeus Die Top System (DTS®)

You are interested to boost lifetime and power density in your power modules? Free yourself from the technical limitations of today’s standard and discover Heraeus Die Top System (DTS® ).
DTS® significantly improves the electrical, thermal and reliability performance of the die connection thus improving the whole module performance.
Sinterable Temperature Sensors for Power Electronics

High-precise temperature measurement is essential for many key technologies, and a prerequisite for effective technical solutions. Power electronics modules are responsible for the energy management in electric vehicles. Heraeus offers specially developed sinterable temperature sensors, which optimally use the performance of the total system.
Join our expert presentation at PCIM Europe
Failure Mechanisms of Sintered Die Top Systems under Power Cycling Tests

Thursday, May 9th at 14:00
Speaker: Andreas Hinrich
In previous studies, power cycling tests were performed for baseplate-free samples bonded with thick Cu wires with the assist of the Die Top System (DTS®, Heraeus Electronics). A significant reliability improvement of at least 55 times compared to soldered samples bonded with Al wires at the test conditions of ΔTj=130 K and ton=1 s was observed. However, the lifetime of the baseplate-free sample was strongly influenced by DCB fatigue.
In this work, the DCB with die & DTS® is soldered on the Cu baseplate. Thereupon, the number of cycles to end of lifetime reduced. The influence of the copper baseplate on the degradation of the DTS® is simulated with finite element method (FEM). The fatigues of the aluminum metallization and the Ag-sintered layer on the chip top-side were confirmed as the main failure mechanisms.