In this paper, flip-chip integration is demonstrated as a method for faster progress towards a GaN MMIC technology by separating the development of active devices and passive matching circuits. This approach offers distinct advantages in the verification of passive components realized on a 2" SiC substrate. A proven 0.3µm GaAs PHEMT technology was used for the transistors that allowed to reproducibly verify both, the flip-chip transitions and the behaviour of the coplanar SiC structures. As an example, three X-band amplifiers in flip-chip technology are presented that demonstrate the feasibility of the technology
Solid-state power amplifiers at W-band (75 - 110 GHz) are attractive for the generation of local-osc...
This paper presents a comprehensive evaluation of GaN HEMT technology development on SiC substrates,...
Wide bandgap (WBG) devices offer significant advantages for next generation military and commercial ...
The aim of this study is to assess the potentialities of HEMTs AlGaN/GaN transistors for RF power ap...
Abstract—In this paper, we report the latest progress of a GaN-based broad-band power amplifier usin...
Abstract – A specific design of a GaN HEMT cascode cell dedi-cated to flip-chip distributed power am...
International audienceThis paper reports on the design of a cascode GaN HEMT cell dedicated to 4-18 ...
Abstract — This paper reports on the design of a cascode GaN HEMT cell dedicated to 4-18GHz flip-chi...
International audienceA specific design of a GaN HEMT cascode cell dedi- cated to flip-chip distribu...
In this paper a Gallium Nitride MMIC technology for high-power amplifiers between 27 GHz and 101 GHz...
<p>Wide bandgap technology for microwave electronics has been an intense area of research during the...
This work presents MMIC low-noise amplifiers based an AlGaN/GaN HEMT technology on SiC substrate for...
This paper presents the design and implementation of power amplifiers using high-power gallium nitri...
Abstract — A 0.25-µm, production III-Nitride-based high-electron mobility transistor (HEMT) technolo...
Abstract — A 0.25-µm, production III-Nitride-based high-electron mobility transistor (HEMT) technolo...
Solid-state power amplifiers at W-band (75 - 110 GHz) are attractive for the generation of local-osc...
This paper presents a comprehensive evaluation of GaN HEMT technology development on SiC substrates,...
Wide bandgap (WBG) devices offer significant advantages for next generation military and commercial ...
The aim of this study is to assess the potentialities of HEMTs AlGaN/GaN transistors for RF power ap...
Abstract—In this paper, we report the latest progress of a GaN-based broad-band power amplifier usin...
Abstract – A specific design of a GaN HEMT cascode cell dedi-cated to flip-chip distributed power am...
International audienceThis paper reports on the design of a cascode GaN HEMT cell dedicated to 4-18 ...
Abstract — This paper reports on the design of a cascode GaN HEMT cell dedicated to 4-18GHz flip-chi...
International audienceA specific design of a GaN HEMT cascode cell dedi- cated to flip-chip distribu...
In this paper a Gallium Nitride MMIC technology for high-power amplifiers between 27 GHz and 101 GHz...
<p>Wide bandgap technology for microwave electronics has been an intense area of research during the...
This work presents MMIC low-noise amplifiers based an AlGaN/GaN HEMT technology on SiC substrate for...
This paper presents the design and implementation of power amplifiers using high-power gallium nitri...
Abstract — A 0.25-µm, production III-Nitride-based high-electron mobility transistor (HEMT) technolo...
Abstract — A 0.25-µm, production III-Nitride-based high-electron mobility transistor (HEMT) technolo...
Solid-state power amplifiers at W-band (75 - 110 GHz) are attractive for the generation of local-osc...
This paper presents a comprehensive evaluation of GaN HEMT technology development on SiC substrates,...
Wide bandgap (WBG) devices offer significant advantages for next generation military and commercial ...