[1] Patwary M N, Junaid N S, Rahman M A et al. The potential short- and long-term disruptions and transformative impacts of 5G and beyond wireless networks: lessons learnt from the development of a 5G testbed environment[J]. IEEE Access, 8, 11352-11379(2020).

[2] de Lima C, Belot D, Berkvens R et al. Convergent communication, sensing and localization in 6G systems: an overview of technologies, opportunities and challenges[J]. IEEE Access, 9, 26902-26925(2021).

[3] Wild T, Braun V, Viswanathan H. Joint design of communication and sensing for beyond 5G and 6G systems[J]. IEEE Access, 9, 30845-30857(2021).

[4] Cai Y C, Zhang L Y, Zhang J et al. 140 Gbps photonics-aided THz wireless communication around 400 GHz band based on artificial neural network equalizer[C], 43-46(2022).

[5] Jia S, Lo M C, Zhang L et al. Integrated dual-DFB laser for 408 GHz carrier generation enabling 131 Gbit/s wireless transmission over 10.7 meters[C](2019).

[6] Harter T, Füllner C, Kemal J N et al. 110-m THz wireless transmission at 100 Gbit/s using a Kramers-Kronig Schottky barrier diode receiver[C](2018).

[7] Jia S, Zhang L, Wang S W et al. 2×300 Gbit/s line rate PS-64QAM-OFDM THz photonic-wireless transmission[J]. Journal of Lightwave Technology, 38, 4715-4721(2020).

[8] Ye X W, Zhang F Z, Yang Y et al. Photonics-based radar with balanced I/Q de-chirping for interference-suppressed high-resolution detection and imaging[J]. Photonics Research, 7, 265-272(2019).

[9] Gao B D, Zhang F Z, Zhao E M et al. High-resolution phased array radar imaging by photonics-based broadband digital beamforming[J]. Optics Express, 27, 13194-13203(2019).

[10] Yi C Y, Yang S N, Yang B et al. Photonic approach for generating bandwidth-doubled and switchable multi-format chirp waveforms[J]. Optics Letters, 46, 1578-1581(2021).

[11] Zhang F Z, Guo Q S, Wang Z Q et al. Photonics-based broadband radar for high-resolution and real-time inverse synthetic aperture imaging[J]. Optics Express, 25, 16274-16281(2017).

[12] Cheng H X, Zou X H, Lu B et al. High-resolution range and velocity measurement based on photonic LFM microwave signal generation and detection[J]. IEEE Photonics Journal, 11, 7200808(2019).

[13] Wang T Y, Liu B, Wei Q et al. Radar detection method based on compressed sensing theory[C], 789-792(2018).

[14] Xuan V N, Hartmann K, Weihs W et al. Combined based on minimum distance orthogonal matching pursuit method for support recovery improvement in super-resolution compressed sensing[C], 257-261(2016).

[15] Zhang Q, Chen Y J, Chen Y A et al. A cognitive signals reconstruction algorithm based on compressed sensing[C], 724-727(2015).

[16] Zhang Y, Wang C, Sang B H et al. 16QAM mode-wavelength division multiplexing coherent transmission system based on MIMO neural network equalization[J]. Acta Optica Sinica, 44, 0306003(2024).

[17] Bian C Z, Wang C, Sang B H et al. Dual-mode polarization-multiplexed 16QAM signal 1000 km few-mode fiber transmission system based on heterodyne coherent detection[J]. Chinese Journal of Lasers, 50, 1906006(2023).

[18] Li X Y, Xu Y M, Yu J J. Single-sideband W-band photonic vector millimeter-wave signal generation by one single I/Q modulator[J]. Optics Letters, 41, 4162-4165(2016).

[19] Saied O, Ghassemlooy Z, Kizilirmak R C et al. Single carrier optical FDM in visible light communication[C](2016).

[20] Yang G H. Satellite communication signal modulation which based on FDM[C](2010).

[21] Liang Z Y, Yang M L, Liu N et al. Performance analysis of integrated sensing and communications waveform[J]. Mobile Communications, 47, 33-39(2023).

[22] Wang Y Y, Zhao F, Wang K H et al. Integrated terahertz high-speed data communication and high-resolution radar sensing system based-on photonics[C](2021).

[23] Srinath S, Rudresh S, Seelamantula C S et al. Nyquist pulses for sub-nyquist sampling: application to underwater imaging[C], 2965-2969(2020).

[24] Dong J S, Wu L D. Comparison and simulation study of the sparse representation matching pursuit algorithm and the orthogonal matching pursuit algorithm[C], 317-320(2021).

[25] Ding Y J, Wu H, Dong W. Compressive sensing microwave photonic radar for distance measurement based on cascaded Mach-Zehnder modulators[J]. Semiconductor Optoelectronics, 43, 39-44(2022).

[26] Xiong G, Yang X N, Zhao H C. Pseudo-random code phase modulation and LFM combined pulse trains ranging system[C], 148-151(2006).

[27] Zhang B Y, Liu P, Zhao H L et al. Research on LFM combined signal ranging method[C], 357-362(2021).

[28] Harms A, Bajwa W U, Calderbank R. A constrained random demodulator for sub-nyquist sampling[J]. IEEE Transactions on Signal Processing, 61, 707-723(2013).

[29] Lin C H, Tsai S H, Chuang G C H. A novel Sub-Nyquist sampling of sparse wideband signals[C], 4628-4632(2013).

[30] Karampoulas D, Kouadri S M, Dooley L S. A novel precolouring-random demodulator architecture for compressive spectrum estimation[C](2013).

[31] Zhou X, Gao T Y, Huo J H et al. Research on IQ imbalance estimation algorithm based on GSOP[J]. Journal on Communications, 39, 129-134(2018).

[32] Zhu X D, Xie L, Jin X L. Application of a hybrid blind equalization algorithm in automotive ethernet[J]. Integrated Circuit Applications, 40, 25-27(2023).

[33] Ren T R, Yu X N, Tong S F et al. Design and evaluation of high-sensitivity underwater optical communication transceiver based on digital signal processing[J]. Chinese Journal of Lasers, 49, 0406005(2022).