Abstract This paper presents a method for extending millimeter wave power amplifier (PA) linear range by fine tuning the CMOS SOI device output characteristics via back-gate biasing. The effect of back-gate biasing to PA performance is measured and reported. It is demonstrated how implementing the same bias point with different back-gate values affects the linear range of the fabricated PA. By applying positive back-bias to the NFET devices, the measured PA displays minimum AM-PM and reaches maximum output power, PAE and 1 dB compression point of 16.3 dBm, 23 % and 13.9 dBm, respectively. EVM of 6.8 % and ACLR of −29.3 dBC were achieved at 5 dBm average output channel power with a 100MHz 64-QAM OFDM signal
The inevitable migration to deeply-scaled technology nodes forces special considerations on high-pow...
This work demonstrates that the back-gate terminal of a 28nm FDSOI MOSFET can be used up to several ...
Abstract — This paper explains the importance of device size and dc bias conditions for the gain and...
This paper presents a highly linear 28-GHz power amplifier (PA) with an adaptive back-gate bias cont...
The low manufacturing cost, integration capability with baseband and digital circuits, and high oper...
This research focuses on the analysis and design of stacked-FET power amplifiers for millimeter-wave...
Advancing of technology and downscaling of channel length have led to high operating frequency of CM...
Abstract This paper presents a fully integrated, four-stack, single-ended, single stage power ampli...
Emerging millimeter-wave applications, including high speed wireless communication using 5G standard...
This paper presents a fully integrated, four-stack, single-ended, single stage power amplifier (PA) ...
This paper presents a 2-stage low-noise amplifier (LNA) designed in 22 nm fully-depleted silicon-on-...
With emerging millimeter wave applications including automotive radars, wireless transmission of hig...
A Ka-band highly linear power amplifier (PA) is implemented in 28-nm bulk CMOS technology. Using a d...
A review is presented of key power amplifier (PA) performance requirements for millimeter-wave 5G sy...
International audienceUltra-Thin-Body and Back-oxide Fully-Depleted Silicon-On-Insulator (UTBB-FDSOI...
The inevitable migration to deeply-scaled technology nodes forces special considerations on high-pow...
This work demonstrates that the back-gate terminal of a 28nm FDSOI MOSFET can be used up to several ...
Abstract — This paper explains the importance of device size and dc bias conditions for the gain and...
This paper presents a highly linear 28-GHz power amplifier (PA) with an adaptive back-gate bias cont...
The low manufacturing cost, integration capability with baseband and digital circuits, and high oper...
This research focuses on the analysis and design of stacked-FET power amplifiers for millimeter-wave...
Advancing of technology and downscaling of channel length have led to high operating frequency of CM...
Abstract This paper presents a fully integrated, four-stack, single-ended, single stage power ampli...
Emerging millimeter-wave applications, including high speed wireless communication using 5G standard...
This paper presents a fully integrated, four-stack, single-ended, single stage power amplifier (PA) ...
This paper presents a 2-stage low-noise amplifier (LNA) designed in 22 nm fully-depleted silicon-on-...
With emerging millimeter wave applications including automotive radars, wireless transmission of hig...
A Ka-band highly linear power amplifier (PA) is implemented in 28-nm bulk CMOS technology. Using a d...
A review is presented of key power amplifier (PA) performance requirements for millimeter-wave 5G sy...
International audienceUltra-Thin-Body and Back-oxide Fully-Depleted Silicon-On-Insulator (UTBB-FDSOI...
The inevitable migration to deeply-scaled technology nodes forces special considerations on high-pow...
This work demonstrates that the back-gate terminal of a 28nm FDSOI MOSFET can be used up to several ...
Abstract — This paper explains the importance of device size and dc bias conditions for the gain and...