[1] M. Skolnik. An introduction and overview of radar. Radar Handbook, 3, 1.1-1.24(2008).

[2] M. Agiwal, A. Roy, N. Saxena. Next generation 5G wireless networks: a comprehensive survey. Commun. Surveys Tuts., 18, 1617-1655(2016).

[3] S. Pan, J. Yao. Photonics-based broadband microwave measurement. J. Lightwave Technol., 35, 3498-3513(2017).

[4] X. Zou, B. Lu, W. Pan. Photonics for microwave measurements. Laser Photon. Rev., 10, 711-734(2016).

[5] L. Zheng, M. Lops, Y. C. Eldar. Radar and communication coexistence: an overview: a review of recent methods. IEEE Signal Process Mag., 36, 85-99(2019).

[6] G. Serafino, F. Scotti, L. Lembo. Toward a new generation of radar systems based on microwave photonic technologies. J. Lightwave Technol., 37, 643-650(2019).

[7] P. Ghelfi, F. Laghezza, F. Scotti. A fully photonics-based coherent radar system. Nature, 507, 341-345(2014).

[8] C. Deakin, Z. Liu. Dual frequency comb assisted analog-to-digital conversion. Opt. Lett., 45, 173-176(2020).

[9] J. Capmany, D. Novak. Microwave photonics combines two worlds. Nat. Photonics, 1, 319-330(2007).

[10] J. Yao. Microwave photonics. J. Lightwave Technol., 27, 314-335(2009).

[11] S. Pan, Y. Zhang. Microwave photonic radars. J. Lightwave Technol., 38, 5450-5484(2020).

[12] A. Khilo, S. J. Spector, M. E. Grein. Photonic ADC: overcoming the bottleneck of electronic jitter. Opt. Express, 20, 4454-4469(2012).

[13] X. Ye, F. Zhang, Y. Yang. Photonics-based radar with balanced I/Q de-chirping for interference-suppressed high-resolution detection and imaging. Photon. Res., 7, 265-272(2019).

[14] B. Jalali, A. S. Bhushan, F. Coppinger. Photonic time-stretch: a potential solution for ultrafast A/D conversion. International Topical Meeting on Microwave Photonics, 197-198(1998).

[15] T. R. Clark, J. U. Kang, R. D. Esman. Performance of a time- and wavelength-interleaved photonic sampler for analog-digital conversion. IEEE Photon. Technol. Lett., 11, 1168-1170(1999).

[16] W. Han, Z. Liu, X. Xu. Photonic RF channelization applications of microcombs. IEEE J. Sel. Top. Quantum Electron., 30, 7600417(2024).

[17] N. K. Fontaine, R. P. Scott, L. Zhou. Real-time full-field arbitrary optical waveform measurement. Nat. Photonics, 4, 248-254(2010).

[18] G. Gao, L. Lei. Photonics-based broadband RF spectrum measurement with sliced coherent detection and spectrum stitching technique. IEEE Photon. J., 9, 5503111(2017).

[19] J. Yang, R. Li, Y. Dai. Wide-band RF receiver based on dual-OFC-based photonic channelization and spectrum stitching technique. Opt. Express, 27, 33194-33204(2019).

[20] A. S. Bhushan, P. V. Kelkar, B. Jalali. 130-GSa/s photonic analog-to-digital converter with time stretch preprocessor. IEEE Photon. Technol. Lett., 14, 684-686(2002).

[21] N. Qian, L. Yu, J. Chen. Influence of the demultiplexer on channel-interleaved photonic analog-to-digital converters. IEEE Photon. J., 12, 5502110(2020).

[22] G. Yang, W. Zou, L. Yu. Influence of the sampling clock pulse shape mismatch on channel-interleaved photonic analog-to-digital conversion. Opt. Lett., 43, 3530-3533(2018).

[23] S. Xu, X. Zou, B. Ma. Deep-learning-powered photonic analog-to-digital conversion. Light Sci. Appl., 8, 66(2019).

[24] Y. Dai, K. Xu, X. Xie. Broadband photonic radio frequency (RF) channelization based on coherent optical frequency combs and polarization I/Q demodulation. Sci. China Technol. Sci., 56, 621-628(2013).

[25] J. Ding, Y. Wu, H. Yang. Wideband image-reject RF channelization based on soliton microcombs. APL Photon., 8, 090801(2023).

[26] X. Xu, M. Tan, J. Wu. Broadband photonic RF channelizer with 92 channels based on a soliton crystal microcomb. J. Lightwave Technol., 38, 5116-5121(2020).

[27] D. Onori, P. Ghelfi, J. Azaña. A 0–40 GHz RF tunable receiver based on photonic direct conversion and digital feed-forward lasers noise cancellation. J. Lightwave Technol., 36, 4423-4429(2018).

[28] X. Xu, J. Wu, T. G. Nguyen. Broadband RF channelizer based on an integrated optical frequency Kerr comb source. J. Lightwave Technol., 36, 4519-4526(2018).

[29] C. Deakin, Z. Liu. Frequency interleaving dual comb photonic ADC with 7 bits ENOB up to 40 GHz. Conference on Lasers and Electro-Optics (CLEO), 1-2(2022).

[30] D. Fang, A. Zazzi, J. Müller. Optical arbitrary waveform measurement using silicon photonic slicing filters. J. Lightwave Technol., 40, 1705-1717(2021).

[31] D. Drayss, D. Fang, C. Füllner. Non-sliced optical arbitrary waveform measurement (OAWM) using soliton microcombs. Optica, 10, 888-896(2023).

[32] K. Igarashi, Y. Kawabata, N. Urakawa. Measuring complex field waveforms of quadrature amplitude modulation optical signals using a spectrally slicing-and-synthesizing coherent optical spectrum analyzer. Opt. Express, 28, 21560-21570(2020).

[33] H. Xue, C. Song, Z. Zheng. Segment reception of broadband millimeter-wave for reducing ADC bandwidth requirements. J. Lightwave Technol., 42, 7619-7627(2024).

[34] P. Vaidyanathan. Quadrature mirror filter banks, M-band extensions and perfect-reconstruction techniques. IEEE ASSP Mag., 4, 4-20(1987).

[35] G. Ding, C. Dehollain, M. Declercq. Frequency-interleaving technique for high-speed A/D conversion. International Symposium on Circuits and Systems (ISCAS)(2003).

[36] N. K. Fontaine. Spectrally-sliced coherent receivers for THz bandwidth optical communications. IEEE 27th Convention of Electrical and Electronics Engineers in Israel, 1-4(2012).

[37] H. Othman, X. Ouyang, C. Antony. Spectrally-sliced coherent receiver utilizing a gain-switched optical frequency comb. J. Lightwave Technol., 41, 5262-5274(2023).

[38] L. Chang, S. Liu, J. E. Bowers. Integrated optical frequency comb technologies. Nat. Photonics, 16, 95-108(2022).

[39] Q. Xie, H. Zeng, Z. Mo. A two-step optimization framework for low sidelobe NLFM waveform using Fourier series. IEEE Geosci. Remote Sens. Lett., 19, 4020905(2022).