[1] V C CHEN, M MARTORELLA. Inverse synthetic aperture radar. SciTech Publishing, 55, 56(2014).
[5] J CAPMANY, D NOVAK. Microwave photonics combines two worlds. Nature photonics, 1, 319(2007).
[6] A WANG, X LUO et al. Ka-band microwave photonic ultra-wideband imaging radar for capturing quantitative target information. Optics express, 26, 20708-20717(2018).
[7] Y ZHANG, X YE, Q GUO et al. Photonic generation of linear-frequency-modulated waveforms with improved time-bandwidth product based on polarization modulation. Journal of Lightwave Technology, 35, 1821-1829(2017).
[9] A MARUTA. All-optical digital-to-analog conversion using nonlinear optical loop mirrors. IEEE Photonics Technology Letters, 18, 703-705(2006).
[10] T SAIDA, K OKAMOTO, K UCHIYAMA et al. Integrated optical digital-to-analogue converter and its application to pulse pattern recognition. Electronics Letters, 37, 1237-1238(2001).
[11] J DING, D ZHU, Y YANG et al. Simultaneous angle-of-arrival and frequency measurement system based on microwave photonics. Journal of Lightwave Technology, 99, 1-10(2023).
[12] P GHELFI, F LAGHEZZA, F SCOTTI et al. A fully photonics-based coherent radar system. Nature, 507, 341-345(2014).
[13] A KHILO, S SPECTOR, M GREIN et al. Photonic ADC：Overcoming the bottleneck of electronic jitter. Optics Express, 20, 4454-4469(2012).
[14] S PENG, S LI, X XUE et al. High-resolution W-band ISAR imaging system utilizing a logic-operation-based photonic digital-to-analog converter. Optics express, 26, 1978-1987(2018).
[16] S WANG, H ZHANG, S JIA et al. Dual-band THz photonic pulses enabling synthetic mm-scale range resolution. IEEE Photonics Technology Letters, 30, 1760-1763(2018).
[19] S LI, Z CUI, X YE et al. Chip-based microwave photonic radar for high resolution imaging. Laser & Photonics Reviews, 14, 1900239(2020).
[20] S MELO, F FALCONI, P GHELFI et al. A silicon integrated photonics-based radar operating in multiple bands, 47-49(2020).
[21] F FALCONI, S MELO, F SCOTTI et al. A combined radar & lidar system based on integrated photonics in silicon-on-insulator. Journal of Lightwave Technology, 39, 17-23(2020).
[22] D ONORI, J AZAÑA. A broadly tunable noise radar transceiver on a silicon photonic chip, 1-3(2020).
[23] G T REED, G MASHANOVICH, F Y GARDES et al. Silicon optical modulators. Nature photonics, 4, 518-526(2010).
[26] F ARAB JUNEGHANI, M GHOLIPOUR VAZIMALI, J ZHAO et al. Thin‐film lithium niobate optical modulators with an extrapolated bandwidth of 170 GHz. Advanced Photonics Research, 4, 2200216(2023).
[27] C WANG, M ZHANG, X CHEN et al. Integrated lithium niobate electro-optic modulators operating at CMOS-compatible voltages. Nature, 562, 101-104(2018).
[28] A N R AHMED, S NELAN, S SHI et al. Subvolt electro-optical modulator on thin-film lithium niobate and silicon nitride hybrid platform. Optics letters, 45, 1112-1115(2020).
[29] H FENG, K ZHANG, W SUN et al. Ultra-high-linearity integrated lithium niobate electro-optic modulators. Photonics Research, 10, 2366-2373(2022).
[30] M HENRI. Processing of synthetic aperture radar images(2008).
[74] P LOZANO, M MARTÍNEZ-SÁNCHEZ. Ionic liquid ion sources：suppression of electrochemical reactions using voltage alternation. Journal of Colloid and Interface Science, 280, 149-154(2004).
[76] D G COURTNEY, H SHEA, K DANNENMAYER et al. Charge neutralization and direct thrust measure-ments from bipolar pairs of ionic-electrospray thrusters. Journal of Spacecraft and Rockets, 55, 54-65(2017).
[78] F MIER-HICKS, P C LOZANO. Spacecraft-charging characteristics induced by the operation of electrospray thrusters. Journal of Propulsion and Power, 33, 456-467(2017).
[79] C CUI, J WANG. Simulations of pure ionic electrospray thruster plume neutralization, 3613(2020).
[80] B ZHANG, G CAI, B HE et al. Plume neutralization of an ionic liquid electrospray thruster：better insights from particle-in-cell modelling. Plasma Sources Science and Technology, 30, 125009(2021).
