1 M. Darvishi, "Widely tunable 4th order switched Gm-C band-pass filter based on N-path filters" 47 (47): 3105-3119, 2012
2 A. Ghaffari, "Tunable n-path notch filters for blocker suppression : Modeling and verification" 48 (48): 1370-1382, 2013
3 A. Ghaffari, "Tunable high-Q N-path band-pass filters : Modeling and verification" 46 (46): 998-1010, 2011
4 M. N. Hasan, "Tunable blocker-tolerant onchip radio-frequency front-end filter with dual adaptive transmission zeros for software-defined radio applications" 64 (64): 4419-4433, 2016
5 J. han, "RF receiver front-end employing IIP2-enhanced 25% duty-cycle quadrature passive mixer for advanced cellular applications" 8 (8): 8166-8177, 2020
6 M. Darvishi, "Design of active N-path filters" 48 (48): 2962-2976, 2013
7 B. Razavi, "Design of Analog CMOS Integrated Circuits" McGraw-Hill 2001
8 D. Lee, "CMOS tunable high-Q channelselection low-noise amplifier employing frequencytranslated poly-phase filter" 2020
9 T. Kim, "CMOS channel-selection low-noise amplifier with high-Q RF band-pass/band-rejection Filter for highly integrated RF front-ends" 30 (30): 280-283, 2020
10 Z. Lin, "Analysis and modeling of a gainboosted N-path switched-capacitor bandpass filter" 61 (61): 2560-2568, 2014
1 M. Darvishi, "Widely tunable 4th order switched Gm-C band-pass filter based on N-path filters" 47 (47): 3105-3119, 2012
2 A. Ghaffari, "Tunable n-path notch filters for blocker suppression : Modeling and verification" 48 (48): 1370-1382, 2013
3 A. Ghaffari, "Tunable high-Q N-path band-pass filters : Modeling and verification" 46 (46): 998-1010, 2011
4 M. N. Hasan, "Tunable blocker-tolerant onchip radio-frequency front-end filter with dual adaptive transmission zeros for software-defined radio applications" 64 (64): 4419-4433, 2016
5 J. han, "RF receiver front-end employing IIP2-enhanced 25% duty-cycle quadrature passive mixer for advanced cellular applications" 8 (8): 8166-8177, 2020
6 M. Darvishi, "Design of active N-path filters" 48 (48): 2962-2976, 2013
7 B. Razavi, "Design of Analog CMOS Integrated Circuits" McGraw-Hill 2001
8 D. Lee, "CMOS tunable high-Q channelselection low-noise amplifier employing frequencytranslated poly-phase filter" 2020
9 T. Kim, "CMOS channel-selection low-noise amplifier with high-Q RF band-pass/band-rejection Filter for highly integrated RF front-ends" 30 (30): 280-283, 2020
10 Z. Lin, "Analysis and modeling of a gainboosted N-path switched-capacitor bandpass filter" 61 (61): 2560-2568, 2014
11 K. Kwon, "A hybrid transformer-based CMOS duplexer with a single-ended notch-filtered LNA for highly integrated tunable RF front-ends" 28 (28): 1032-1034, 2018
12 K. Son, "A dual-band CMOS tunable duplexer employing switchable autotransformer for highly integrated RF front-ends" 29 (29): 495-497, 2019
13 G. Qi, "A SAW-less tunable RF front end for FDD and IBFD combining an electrical-balance duplexer and a switched-LC N-path LNA" 53 (53): 1431-1442, 2018
14 D. Im, "A CMOS active feedback balun-LNA with high IIP2 for wideband digital TV receivers" 58 (58): 3566-3579, 2010
15 J. Borremans, "A 40 nm CMOS 0.4-6 GHz receiver resilient to out-of-band blockers" 46 (46): 1659-1671, 2011
16 C.-K. Luo, "A 0.4-6-GHz 17-dBm B1dB 36-dBm IIP3 channel-selecting low-noise amplifier for SAW-less 3G/4G FDD diversity receivers" 64 (64): 1110-1121, 2016
17 B. Van Liempd, "A +70-dBm IIP3 electricalbalance duplexer for highly integrated tunable front-ends" 64 (64): 4274-4286, 2016
18 I. Fabiano, "A +25-dBm IIP3 1. 7-2. 1-GHz FDD receiver front end with integrated hybrid transformer in 28-nm CMOS" 65 (65): 4677-4688, 2017