The Publisher's final version can be found by following the DOI link.The characteristics of commercially available silicon carbide power devices and packaging technologies have been measured up to 350°C in order to obtain their reliability and suitability for use in a hybrid electric vehicle application. Electro-thermal simulations of representative power module packaging structures, using measured conduction losses, revealed the respective temperature profiles of the devices and packaging. By correlating lifetime data found from our passive thermal cycling of candidate packaging technologies, with the magnitude and number of thermal cycles extracted from simulated temperature profiles, the lifetime of high temperature power module packages...
SiC power semiconductors can safely operate at a junction temperature of 500°C. Such a high operatin...
International audienceThe aim of this study consists in comparing the effects of temperature on vari...
High-temperature electronics and sensors are necessary for harsh-environment space and aeronautical ...
The characteristics of commercially available silicon carbide power devices and packaging technologi...
A proposed method for accommodating high-temperature operation has been studied and developed throug...
This paper presents the development of a new packaging technology using silicon carbide (SiC) power ...
SiC is a wide bandgap semiconductor with better electrothermal properties than silicon, including hi...
The use of silicon carbide (SiC) as a base material in power electronics has manyadvantages, includi...
For application in the automotive powertrain, a reliable, high-temperature operation of SiC power se...
From the perspective of an application engineer, power semiconductor devices over the course of thei...
SiC devices can easily deal with higher temperatures(if the electrical performance of unipolar devic...
SiC devices are promising for outperforming Si counterparts in high-frequency applications due to it...
Abstract. As commercial-grade silicon carbide (SiC) power electronics devices become available, the ...
The superior electro-thermal properties of SiC power devices permit higher temperature of operation ...
The lifetime of power electronic modules can be assessed by an active power cycling test. The result...
SiC power semiconductors can safely operate at a junction temperature of 500°C. Such a high operatin...
International audienceThe aim of this study consists in comparing the effects of temperature on vari...
High-temperature electronics and sensors are necessary for harsh-environment space and aeronautical ...
The characteristics of commercially available silicon carbide power devices and packaging technologi...
A proposed method for accommodating high-temperature operation has been studied and developed throug...
This paper presents the development of a new packaging technology using silicon carbide (SiC) power ...
SiC is a wide bandgap semiconductor with better electrothermal properties than silicon, including hi...
The use of silicon carbide (SiC) as a base material in power electronics has manyadvantages, includi...
For application in the automotive powertrain, a reliable, high-temperature operation of SiC power se...
From the perspective of an application engineer, power semiconductor devices over the course of thei...
SiC devices can easily deal with higher temperatures(if the electrical performance of unipolar devic...
SiC devices are promising for outperforming Si counterparts in high-frequency applications due to it...
Abstract. As commercial-grade silicon carbide (SiC) power electronics devices become available, the ...
The superior electro-thermal properties of SiC power devices permit higher temperature of operation ...
The lifetime of power electronic modules can be assessed by an active power cycling test. The result...
SiC power semiconductors can safely operate at a junction temperature of 500°C. Such a high operatin...
International audienceThe aim of this study consists in comparing the effects of temperature on vari...
High-temperature electronics and sensors are necessary for harsh-environment space and aeronautical ...