Forschung und Entwicklung in Schlüsseltechnologien – von Mikroelektronik und Sensorsystemen bis hin zu Leistungselektronik, KI und Quantentechnologien.
Integrating high-frequency magnetic passives into CPO packages which enables efficient local power conversion, higher power density, and improved power integrity.
Define power-conversion requirements fitting to CPO: Identify relevant input/output voltages, power levels, switching frequencies, current densities, footprint, efficiency, and thermal constraints for CPO and AI/HPC packages.
Develop high-frequency magnetic materials: Optimize thin-film or microfabricated magnetic materials for roughly 10–100 MHz, targeting high saturation flux density, high permeability, and low core loss.
Design integrated magnetic passives: Develop micro-inductors, coupled inductors, microtransformers, and EMI chokes suitable for package/interposer integration.
Develop fabrication and packaging concepts: Establish wafer-level or package-compatible processes for integrating magnetic cores and windings into interposers, redistribution layers, substrates, or chiplets.
Demonstrate and validate a CPO power-in-package prototype: Build and experimentally characterize an integrated demonstrator in terms of efficiency, thermal behavior, EMI, transient response, power density, and reliability.
Optimize converter–magnetics co-design: Co-design the magnetic components with IVRs, multiphase converters, resonant converters, and point-of-load architectures to maximize efficiency and power density.
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