This paper presents a 300 GHz transmitter front-end suitable for ultrahigh-speed wireless communications. The transmitter front-end realized in TSMC 40 nm CMOS consists of a common-source (CS) based doubler driven by a two-way D-band power amplifier (PA). Simulation results show that the two-way D-band PA obtains a peak gain of 21.6 dB over a -3 dB bandwidth from 132 GHz to 159 GHz. It exhibits a saturated power of 7.2 dBm and a power added efficiency (PAE) of 2.3%, all at 150 GHz. The CS based doubler results in an output power of 0.5 mW at 300 GHz. The transmitter front-end consumes a DC power of 205.8 mW from a 0.9 V supply voltage while it occupies an area of 2.1 mm2
This paper presents a transmitter IC with two identical signal paths, including base-band amplifier,...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...
This paper presents a 300 GHz transmitter front-end suitable for ultrahigh-speed wireless communicat...
This paper presents a 300 GHz transmitter front-end suitable for ultrahigh-speed wireless communicat...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
With fast growing consumer demand for high speed mobile data capacity, wireless spectrum has become ...
Today s electronic communication possibilities and applications are endless. However, only 150 years...
Abstract-We present the design and test results for D-band CMOS transmitter (Tx) and receiver (Rx) f...
The last decade has witnessed a tremendous growth in wireless communications. Today's consumers dema...
A renaissance of wireless and wired communications in the last decade has engaged with advanced CMOS...
Recent advancements in silicon technology have paved the way for the development of integrated trans...
Recent advancements in silicon technology have paved the way for the development of integrated trans...
This paper presents a transmitter IC with two identical signal paths, including base-band amplifier,...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...
This paper presents a 300 GHz transmitter front-end suitable for ultrahigh-speed wireless communicat...
This paper presents a 300 GHz transmitter front-end suitable for ultrahigh-speed wireless communicat...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
This paper presents a low-power D-Band amplifier suitable for ultrahigh-speed wireless communication...
With fast growing consumer demand for high speed mobile data capacity, wireless spectrum has become ...
Today s electronic communication possibilities and applications are endless. However, only 150 years...
Abstract-We present the design and test results for D-band CMOS transmitter (Tx) and receiver (Rx) f...
The last decade has witnessed a tremendous growth in wireless communications. Today's consumers dema...
A renaissance of wireless and wired communications in the last decade has engaged with advanced CMOS...
Recent advancements in silicon technology have paved the way for the development of integrated trans...
Recent advancements in silicon technology have paved the way for the development of integrated trans...
This paper presents a transmitter IC with two identical signal paths, including base-band amplifier,...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...
This article presents a compact 150-GHz transmitter with 12-dBm Psat and 17-dB conversion gain. This...