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Proceedings ArticleDOI

Silicon carbide power chip on chip module based on embedded die technology with paralleled dies

TLDR
A parallelization technique enabling impedance balancing is developed for the layout and validated using four parallel Silicon Carbide (SiC) MOSFETs and the thermal management of the module is studied and die attach with direct copper filled vias is validated.
Abstract
A new three dimensional package based on Printed Circuit Board (PCB) embedded die technology is presented in this paper. The package takes advantage of the Power Chip On Chip (PCOC) concept, where commutation cell is housed within the bus bar, allowing a very low inductance design for the package of up to 0.25 nH. Two key design challenges with the package relate to the layout and the thermal management. Thus, a parallelization technique enabling impedance balancing is developed for the layout and validated using four parallel Silicon Carbide (SiC) MOSFETs. Gate circuit is carefully designed allowing low inductive behavior and low electromagnetic coupling. Finally, the thermal management of the module is studied and die attach with direct copper filled vias is validated.

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Citations
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Journal ArticleDOI

A Review of SiC Power Module Packaging Technologies: Challenges, Advances, and Emerging Issues

TL;DR: The standard power module structure is reviewed, the reasons why novel packaging technologies should be developed are described, and the packaging challenges associated with high-speed switching, thermal management, high-temperature operation, and high-voltage isolation are explained in detail.
Journal ArticleDOI

Automotive Power Module Packaging: Current Status and Future Trends

TL;DR: This paper presents a comprehensive review of the automotive power module packaging technologies and concludes that a preferable overall performance could be achieved by combining multiple technologies.
Journal ArticleDOI

Optimized Power Modules for Silicon Carbide mosfet

TL;DR: A new 3-D power module dedicated to SiC mosfet based on printed circuit board embedded die technology is presented and is compared with a standard power module, both modules are characterized in terms of switching behavior and electromagnetic interference emissions.
Proceedings ArticleDOI

Application of the PCB-Embedding Technology in Power Electronics – State of the Art and Proposed Development

TL;DR: The embedding of components in Printed Circuit Board material is an attractive solution to improve the performance of power converters in the 1 W–100 kW range by increasing the power density, reducing circuit parasitics, and improving manufacturability.
Proceedings ArticleDOI

Optimized power modules for silicon carbide MOSFET

TL;DR: An Integrated Power Board technology was used to construct a 3D power module, suitable for use of WBG devices as it reduces the inductive parasitics to the strict minimum, with a 1.2kV/80A SiC prototype using SiC MOSFETs.
References
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Journal ArticleDOI

Die Attach Materials for High Temperature Applications: A Review

TL;DR: This literature work seeks to review the numerous research attempts thus far for high temperature die attach materials on wide band gap materials of silicon carbide, gallium nitride and diamond, document their successes, concerns and application possibilities, all of which are essential for highTemperature reliability.
Journal ArticleDOI

Three-dimensional packaging for power semiconductor devices and modules

TL;DR: This paper presents the constructions and some electrical and thermomechanical analyses of four 3-D packaging approaches that have been developed within the Center for Power Electronics Systems-an NSF Engineering Research Center.

Ultra-Low-Inductance Power Module for Fast Switching Semiconductors

TL;DR: In this article, an ultra-low-inductance power module using silicon carbide (SiC) devices has been developed by using an advanced packaging technology, which was achieved by using PCB technologies on a DCB substrate to provide more interconnection layers and design freedom.
Proceedings ArticleDOI

Optimization of thermal via design parameters based on an analytical thermal resistance model

TL;DR: In this paper, a simple analytical model that provides an efficient approach for analysis of thermal via pads is presented, where small vias close to one another form a cluster with a relatively large dimension.
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