This paper describes a frequency-agile RF front-end in 65nm CMOS targeting short-range full-duplex wireless communication. Complementing previous work on a self-interference cancelling receiver, this work describes the co-integrated transmitter and reports the phase noise advantages of using correlated clock resources to clock all up- and downconverters present in the system. The hardware is capable of frequency-agile operation from 0.15 to 3.5GHz carrier frequency. Measurements at 2.5 GHz indicate that the RX noise floor is only 1 dB degraded by phase noise when operated from a commercial PLL with ~ -38 dBc phase noise
One of the main challenges of In-Band Full-Duplex (IBFD) communication systems is the mitigation of ...
The following work gives a brief overview about existing self-interference cancellation techniques a...
Full-duplex systems are expected to double the spectral efficiency compared to conventional half-dup...
This paper describes a frequency-agile RF front-end in 65nm CMOS targeting short-range full-duplex w...
In-band full-duplex wireless communication (FD), i.e. transmission and reception at the same time at...
Current wireless communication systems use frequency-domain duplexing (FDD) or time-domain duplexing...
Abstract—In this correspondence, the effects of oscillator phase-noise with arbitrary spectral chara...
Abstract—This paper addresses the analysis of oscillator phase-noise effects on the self-interferenc...
Thesis (Ph.D.)--University of Washington, 2017-06The continued demand for higher levels of wireless ...
In this paper, we describe an advanced real-time cancellation architecture for efficient digital-dom...
This paper describes three RF self-interference reduction techniques for full-duplex wireless links,...
This paper presents the experimental results of self-interference cancellation for a $2\times 2$ m...
This paper proposes two RF self-interference cancellation techniques. Their small form-factor enable...
Full-duplex systems are expected to double the spectral efficiency compared to conventional half-dup...
Due to the tremendous increase in wireless data traffic, one of the major challenges for future wire...
One of the main challenges of In-Band Full-Duplex (IBFD) communication systems is the mitigation of ...
The following work gives a brief overview about existing self-interference cancellation techniques a...
Full-duplex systems are expected to double the spectral efficiency compared to conventional half-dup...
This paper describes a frequency-agile RF front-end in 65nm CMOS targeting short-range full-duplex w...
In-band full-duplex wireless communication (FD), i.e. transmission and reception at the same time at...
Current wireless communication systems use frequency-domain duplexing (FDD) or time-domain duplexing...
Abstract—In this correspondence, the effects of oscillator phase-noise with arbitrary spectral chara...
Abstract—This paper addresses the analysis of oscillator phase-noise effects on the self-interferenc...
Thesis (Ph.D.)--University of Washington, 2017-06The continued demand for higher levels of wireless ...
In this paper, we describe an advanced real-time cancellation architecture for efficient digital-dom...
This paper describes three RF self-interference reduction techniques for full-duplex wireless links,...
This paper presents the experimental results of self-interference cancellation for a $2\times 2$ m...
This paper proposes two RF self-interference cancellation techniques. Their small form-factor enable...
Full-duplex systems are expected to double the spectral efficiency compared to conventional half-dup...
Due to the tremendous increase in wireless data traffic, one of the major challenges for future wire...
One of the main challenges of In-Band Full-Duplex (IBFD) communication systems is the mitigation of ...
The following work gives a brief overview about existing self-interference cancellation techniques a...
Full-duplex systems are expected to double the spectral efficiency compared to conventional half-dup...