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This article presents a mixer-first blocker-tolerant receiver (RX) with effective switch resistance (RSW) compensation and high-Q selectivity. By analyzing the impact of non-ideal 1/N LO duty cycle and effective RSW on mixer-first RX, an effective RSW compensation technique is proposed to mitigate noise figure (NF) and out-of-band (OB) third-order intercept …
This article presents a mixer-first blocker-tolerant receiver (RX) with effective switch resistance (RSW) compensation and high-Q selectivity. By analyzing the impact of non-ideal 1/N LO duty cycle and effective RSW on mixer-first RX, an effective RSW compensation technique is proposed to mitigate noise figure (NF) and out-of-band (OB) third-order intercept …
This article presents a mixer-first blocker-tolerant receiver (RX) with effective switch resistance (RSW) compensation and high-Q selectivity. By analyzing the impact of non-ideal 1/N LO duty cycle and effective RSW on mixer-first RX, an effective RSW compensation technique is proposed to mitigate noise figure (NF) and out-of-band (OB) third-order intercept …
This article presents a mixer-first blocker-tolerant receiver (RX) with effective switch resistance (RSW) compensation and high-Q selectivity. By analyzing the impact of non-ideal 1/N LO duty cycle and effective RSW on mixer-first RX, an effective RSW compensation technique is proposed to mitigate noise figure (NF) and out-of-band (OB) third-order intercept …
Multi-core and series-resonance (SR) techniques have been proposed to achieve ultra-low phase noise (PN) performance. In this article, a scalable ring-coupling scheme is proposed for multi-core expansion. The mechanism provides intrinsic oscillation and PN reduction without compromising the passive network, specifically tailored for the SR oscillator. The dual closed ring …
This article presents an E-band receiver (RX) with spillover cancellation for frequency-modulated continuous-wave (FMCW) radars. To reject spillover from both TX–RX coupling and undesired reflections from radar assembly (such as bumper reflection), a spillover replication method based on frequency-delay translation through a single-sideband (SSB) modulator is introduced. To keep …
This article presents an E-band receiver (RX) with spillover cancellation for frequency-modulated continuous-wave (FMCW) radars. To reject spillover from both TX–RX coupling and undesired reflections from radar assembly (such as bumper reflection), a spillover replication method based on frequency-delay translation through a single-sideband (SSB) modulator is introduced. To keep …
This article presents an E-band receiver (RX) with spillover cancellation for frequency-modulated continuous-wave (FMCW) radars. To reject spillover from both TX–RX coupling and undesired reflections from radar assembly (such as bumper reflection), a spillover replication method based on frequency-delay translation through a single-sideband (SSB) modulator is introduced. To keep …
