This paper presents the design of a low-power millimeter wave receiver for Gbps short range wireless communications in the 60GHz frequency range. The scope of this paper covers the system design of the OOK direct conversion receiver, the design of a novel 60GHz low-noise amplifier, the co-design of the mixer with the IF amplifier and the design of a IF variable gain amplifier. The full receiver is realized in Global Foundry 65nm CMOS technology. The extracted simulation results show that the receiver is able to work from 50GHz-70GHz with a data rate higher than 1Gbps while consuming a current of about 25mA from a standard 1.2V supply voltage at maximum gain
This paper presents a 60 GHz CMOS I/Q receiver for the high-speed wireless communication system. It ...
Abstract—Adirect-conversion transceiver includingbase-band amplifiers and filters employs a 60-GHz q...
In the last few years we have seen an increased interest in millimeter-wave CMOS circuits and commun...
International audienceThe research on the design of receiver front-ends for very high data-rate comm...
International audienceThe research on the design of receiver front-ends for very high data-rate comm...
This work presents the design of a 60 GHz OOK transceiver, with on-chip integrated antenna, for mult...
The abundance of the widely available spectrum surrounding 60 GHz operating frequency has promising ...
This paper has explored an ultra-low-power design of two 60-GHz direct-conversion receivers in a 65-...
A multi-channel receiver operating between 56 GHz and 70 GHz for coverage of different 60 GHz bands ...
Research in the mm-wave band using CMOS and SiGe technologies has gained momentum over the past few ...
An ultra low power direct-conversion receiver is demonstrated for V-band 60GHz applications in 65nm ...
The paper presents the design of a 60 GHz transceiver, with all active and passive devices integrate...
The paper presents the design of a 60 GHz transceiver, with all active and passive devices integrate...
Operation at millimeter-wave frequency, where up to 7GHz of unlicensed bandwidth is available in the...
The 60GHz band is promising for applications such as high-speed short-range wireless personal-area n...
This paper presents a 60 GHz CMOS I/Q receiver for the high-speed wireless communication system. It ...
Abstract—Adirect-conversion transceiver includingbase-band amplifiers and filters employs a 60-GHz q...
In the last few years we have seen an increased interest in millimeter-wave CMOS circuits and commun...
International audienceThe research on the design of receiver front-ends for very high data-rate comm...
International audienceThe research on the design of receiver front-ends for very high data-rate comm...
This work presents the design of a 60 GHz OOK transceiver, with on-chip integrated antenna, for mult...
The abundance of the widely available spectrum surrounding 60 GHz operating frequency has promising ...
This paper has explored an ultra-low-power design of two 60-GHz direct-conversion receivers in a 65-...
A multi-channel receiver operating between 56 GHz and 70 GHz for coverage of different 60 GHz bands ...
Research in the mm-wave band using CMOS and SiGe technologies has gained momentum over the past few ...
An ultra low power direct-conversion receiver is demonstrated for V-band 60GHz applications in 65nm ...
The paper presents the design of a 60 GHz transceiver, with all active and passive devices integrate...
The paper presents the design of a 60 GHz transceiver, with all active and passive devices integrate...
Operation at millimeter-wave frequency, where up to 7GHz of unlicensed bandwidth is available in the...
The 60GHz band is promising for applications such as high-speed short-range wireless personal-area n...
This paper presents a 60 GHz CMOS I/Q receiver for the high-speed wireless communication system. It ...
Abstract—Adirect-conversion transceiver includingbase-band amplifiers and filters employs a 60-GHz q...
In the last few years we have seen an increased interest in millimeter-wave CMOS circuits and commun...