The development of transient gate resistance thermometry (T-GRT) is reported. It is a technique used to measure the transient self-heating of a FET's gate metal. Demonstrations of T-GRT are presented at the wafer level on a GaAs pHEMT and an AlGaN/GaN-on-SiC HEMT. Dynamic self heating is monitored from hundreds of nanoseconds to hundreds of milliseconds. Preliminary finite-element simulations across a range of power dissipation levels agree closely with T-GRT at, and beyond, 1 μs after the applied drain pulse. Characterization of dynamic self heating and its application to pulsed applications such as radar are discussed.4 page(s
The strong demand of the electronics industry in terms of power levels and high frequencies has stro...
International audienceTwo electrical methods and one optical method are used, in order to measure th...
The temperature response of field-effect transistors (FETs) to instantaneous power dissipation has b...
International audienceThis paper reports on a new method for the characterization of transistors tra...
In the framework of the Top Amplifier Research Groups in a European Team (TARGET) project, we develo...
Gallium nitride (GaN) based electronics have shown great potential for RF devices and power electron...
A pulsed I-V thermal resistance Rth measurement method is formulated and applied on-wafer to a GaAs ...
An experimental method to measure the gate metal temperature of GaN-based HEMTs is demonstrated. The...
Gate junction temperature is presented as the crucial parameter for modeling thermal degradation in ...
GaAs pHEMT thermal reliability test structures are introduced which incorporate on-wafer heating usi...
In this paper results obtained by drain current transients measurement on GaN-based high electron mo...
International audienceGaN High Electron Mobility Transistors (HEMTs) are very promising for high pow...
International audienceTransistor's thermal impedance is a parameter of prime importance to predict t...
International audienceGaN High Electron Mobility Transistors (HEMTs) is very promising for high powe...
Gallium nitride (GaN) high-electron mobility transistors (HEMTs) are a key technology for realizing ...
The strong demand of the electronics industry in terms of power levels and high frequencies has stro...
International audienceTwo electrical methods and one optical method are used, in order to measure th...
The temperature response of field-effect transistors (FETs) to instantaneous power dissipation has b...
International audienceThis paper reports on a new method for the characterization of transistors tra...
In the framework of the Top Amplifier Research Groups in a European Team (TARGET) project, we develo...
Gallium nitride (GaN) based electronics have shown great potential for RF devices and power electron...
A pulsed I-V thermal resistance Rth measurement method is formulated and applied on-wafer to a GaAs ...
An experimental method to measure the gate metal temperature of GaN-based HEMTs is demonstrated. The...
Gate junction temperature is presented as the crucial parameter for modeling thermal degradation in ...
GaAs pHEMT thermal reliability test structures are introduced which incorporate on-wafer heating usi...
In this paper results obtained by drain current transients measurement on GaN-based high electron mo...
International audienceGaN High Electron Mobility Transistors (HEMTs) are very promising for high pow...
International audienceTransistor's thermal impedance is a parameter of prime importance to predict t...
International audienceGaN High Electron Mobility Transistors (HEMTs) is very promising for high powe...
Gallium nitride (GaN) high-electron mobility transistors (HEMTs) are a key technology for realizing ...
The strong demand of the electronics industry in terms of power levels and high frequencies has stro...
International audienceTwo electrical methods and one optical method are used, in order to measure th...
The temperature response of field-effect transistors (FETs) to instantaneous power dissipation has b...