[1] D F Walls. Squeezed states of light. Nature, 306, 141(1983).

[2] L Mandel. Squeezed states and sub-poissonian photon statistics. Phys Rev Lett, 49, 136(1982).

[3] H Rodrigues, D Jr Portes, S B Duarte et al. Squeezing in coupled oscillators having neither nonlinear terms nor time-dependent parameters. Braz J Phys, 31, 562(2001).

[4] S Friberg, L Mandel. Production of squeezed states by combination of parametric down-conversion and harmonic generation. Opt Commun, 48, 439(1984).

[5] B R Mollow, R J Glauber. Quantum theory of parametric amplification. I. Phys Rev, 160, 1076(1967).

[6] M S Shahriar, P R Hemmer. Generation of squeezed states and twin beams via non-degenerate four-wave mixing in a Λ system. Opt Commun, 158, 273(1998).

[7] A I Lvovsky. Squeezed light. In: Photonics: Scientific foundations, technology and applications. John Wiley & Sons, Inc, 121(2015).

[8] H P Yuen, J H Shapiro. Generation and detection of two-photon coherent states in degenerate four-wave mixing. Opt Lett, 4, 334(1979).

[9] T Hirano, M Matsuoka. Broadband squeezing of light by pulse excitation. Opt Lett, 15, 1153(1990).

[10] G Breitenbach, S Schiller, J Mlynek. Measurement of the quantum states of squeezed light. Nature, 387, 471(1997).

[11] Y Yamamoto, S Machida, W H Richardson. Photon number squeezed states in semiconductor lasers. Science, 255, 1219(1992).

[12] M T Raiford. Statistical dynamics of quantum oscillators and parametric amplification in a single mode. Phys Rev A, 2, 1541(1970).

[13] L Davidovich. Sub-Poissonian processes in quantum optics. Rev Modern Phys, 68, 127(1996).

[15] A Salmanogli, D Gokcen. Entanglement sustainability improvement using optoelectronic converter in quantum radar (interferometric object-sensing). IEEE Sens J, 21, 9054(2021).

[16] A Salmanogli, D Gokcen, H S Gecim. Entanglement sustainability in quantum radar. IEEE J Sel Top Quantum Electron, 26, 1(2020).

[17] S Barzanjeh, S Pirandola, D Vitali et al. Microwave quantum illumination using a digital receiver. Sci Adv, 6, eabb0451(2020).

[18] S Barzanjeh, S Guha, C Weedbrook et al. Microwave quantum illumination. Phys Rev Lett, 114, 080503(2015).

[19] A Salmanogli, D Gokcen. Design of quantum sensor to duplicate European Robins navigational system. Sens Actuat A Phys, 322, 112636(2021).

[20] A Salmanogli, D Gokcen, H S Gecim. Entanglement of optical and microcavity modes by means of an optoelectronic system. Phys Rev Appl, 11, 024075(2019).

[21] V Aparin, L E Larson. Modified derivative superposition method for linearizing FET low-noise amplifiers. IEEE Trans Microwave Theory Techn, 53, 571(2005).

[22] S Ganesan, E Sanchez-Sinencio, J Silva-Martinez. A highly linear low-noise amplifier. IEEE Trans Microwave Theory Techn, 54, 4079(2006).

[23] Z Hamaizia, N Sengouga, M Missous et al. A 0.4dB noise figure wideband low-noise amplifier using a novel InGaAs/InAlAs/InP device. Mater Sci Semicond Process, 14, 89(2011).

[24] B Yurke, M L Roukes, R Movshovich et al. A low-noise series-array Josephson junction parametric amplifier. Appl Phys Lett, 69, 3078(1996).

[25] J Schleeh, G Alestig, J Halonen et al. Ultralow-power cryogenic InP HEMT with minimum noise temperature of 1 K at 6 GHz. IEEE Electron Device Lett, 33, 664(2012).

[26] E Cha, N Wadefalk, G Moschetti et al. A 300-µW cryogenic HEMT LNA for quantum computing. 2020 IEEE/MTT-S International Microwave Symposium (IMS), 1299(2020).

[27] N Wadefalk, A Mellberg, I Angelov et al. Cryogenic wide-band ultra-low-noise if amplifiers operating at ultra-low DC power. IEEE Trans Microwave Theory Techn, 51, 1705(2003).

[29] A Salmanogli. Entangled microwave photons generation using cryogenic low noise amplifier (transistor nonlinearity effects). Quantum Sci Technol, 7, 045026(2022).

[30] X H Fan, H Zhang, E SÁnchez-Sinencio. A noise reduction and linearity improvement technique for a differential cascode LNA. IEEE J Solid State Circuits, 43, 588(2008).

[31] E Cha, G Moschetti, N Wadefalk et al. Two-finger InP HEMT design for stable cryogenic operation of ultra-low-noise Ka-and Q-band LNAs. IEEE Trans Microwave Theory Tech, 65, 5171-80(2017).

[32] E Cha, N Wadefalk, G Moschetti et al. InP HEMTs for sub-mW cryogenic low-noise amplifiers. IEEE Electron Device Lett, 41, 1005(2020).

[33] A Mellberg, N Wadefalk, I Angelov et al. Cryogenic 2-4 GHz ultra low noise amplifier. 2004 IEEE MTT-S International Microwave Symposium Digest, 161(2004).