[1] Lee J, Mudawar I (2005) Two-phase flow in high-heat-flux micro-channel heat sink for refrigeration cooling applications: Part II—heat transfer characteristics. Int J Heat Mass Tran 48(5): 941-955.
[2] Kim SM, Mudawar I (2017) Thermal design and operational limits of two-phase micro-channel heat sinks. Int J Heat Mass Tran 106: 861-876.
[3] Kuo CJ, Peles Y (2009) Pressure effects on flow boiling instabilities in parallel microchannels. Int J Heat Mass Tran 52(1-2): 271-280.
[4] Ghobadi M, Muzychka YS (2015) Heat transfer and pressure drop in mini channel heat sinks. Heat Tran Eng 36(10): 902-911.
[5] Stenning A (1964), Instabilities in the flow of a boiling liquid. J Basic Eng Trans ASME 86.
[6] Zhang T, Tong T, Chang JY, Peles Y, Prasher R (2009) Ledinegg instability in microchannels. Int J Heat Mass Tran 52(25-26): 5661-5674.
[7] Bergles AE, Lienhard VJH, Kendall GE, Griffith P (2003) Boiling and evaporation in small diameter channels. Heat Tran Eng 24(1): 18-40.
[8] Koşar A, Kuo CJ, Peles Y (2006) Suppression of boiling flow oscillations in parallel microchannels by inlet restrictors. J Heat Tran. 128(3): 251-260.
[9] Balasubramanian P, Kandlikar SG (2005) Experimental study of flow patterns, pressure drop, and flow instabilities in parallel rectangular minichannels. J Heat Tran Eng 26(3): 20-27.
[10] Kakac S, Bon B (2008) A review of two-phase flow dynamic instabilities in tube boiling systems. Int J Heat Mass Tran 51(3-4): 399-433.
[11] Ruspini LC, Marcel CP, Clausse A (2014) Two-phase flow instabilities: A review. Int J Heat Mass Trans 71: 521-548.
[12] Van Oevelen T, Weibel JA, Garimella SV (2017) Predicting two-phase flow distribution and stability in systems with many parallel heated channels. Int J Heat Mass Trans 107: 557-571.
[13] Padki MM, Palmer K, Kakac S, Veziroǧlu TN (1992) Bifurcation analysis of pressure-drop oscillations and the Ledinegg instability. Int J Heat Mass Tran 35(2): 525-532.
[14] Yang K, Zhang A, Wang J (2018) On the Ledinegg instability in parallel channels: A new and exact criterion. Int J Therm Sci 129: 193-200.
[15] Shin CW, No HC (2017) Experimental study for pressure drop and flow instability of two-phase flow in the PCHE-type steam generator for SMRs. Nucl Eng Desig 318:109-118.
[16] Qi S, Zhou T, Li B, Shahzad MA, Zou Y, Huang YP (2017) Experimental study on Ledinegg flow instability of two-phase natural circulation in narrow rectangular channels at low pressure. Prog Nucl Enrgy 98: 321-328.
[17] Lee J, Chae H, Chang SH (2013) Flow instability during subcooled boiling for a downward flow at low pressure in a vertical narrow rectangular channel. Int J Heat Mass Tran 67: 1170-1180.
[18] Yu Z, Yuan H, Chen C, Yang Z, Tan S (2016) Two-phase flow instabilities of forced circulation at low pressure in a rectangular mini-channel. Int J Heat Mass Tran 98: 438-447.
[19] Zhang T, Peles Y, Wen JT, Tong T, Chang JY, Prasher R, Jensen MK (2010) Analysis and active control of pressure-drop flow instabilities in boiling microchannel systems. Int J Heat Mass Tran 53(11-12): 2347-2360.
[20] Chiapero EM, Fernandino M, Dorao C (2012) Review on pressure drop oscillations in boiling systems. Nucl Eng Desig 250: 436-447.
[21] Ozawa M, Nakanishi S, Ishigai S, Mizuta Y, Tarui H (1979) Flow instabilities in boiling channels: part 1 pressure drop oscillation. Bull JSME 22(170): 1113-1118.
[22] Park IW., Fernandino M, Dorao CA (2018) Experimental study on the characteristics of pressure drop oscillations and their interaction with short-period oscillation in a horizontal tube. Int J Refrig 91: 246-253.
[23] Gürgenci H, Veziroglu T, Kakac S (1983) Simplified nonlinear descriptions of two-phase flow instabilities in vertical boiling channel. Int J Heat Mass Tran 26(5): 671-679.
[24] Padki M, Liu H, Kakac S (1991) Two-phase flow pressure-drop type and thermal oscillations. Int J Heat Fluid Fl 12(3): 240-248.
[25] Mawasha P, Gross R (2001) Periodic oscillations in a horizontal single boiling channel with thermal wall capacity. Int J Heat Fluid Fl 22(6): 643-649.
[26] Liu H, Kocak H, Kakac S (1995) Dynamical analysis of pressure-drop type oscillations with a planar model. Int J Multiphas Fl 21(5): 851-859.
[27] Kakaç S, Venkataraman MR, Pramuanjaroenkij A, Kotcioglu I (2009) Modeling of two-phase flow instabilities in convective in-tube boiling horizontal systems. J Therm Sci Tech 29(1): 107-116.
[28] Ruspini LC (2013) Experimental and numerical investigation on two-phase flow instabilities. NTNU Uni.
[29] Shahnazari MR, Amjadigolpayegani A, Soltani M (2021) Bifurcation analysis on interaction between ledinegg instability and pressure drop oscillations in a horizontal boiling channel. Int J Heat Mass Tran 166: 120760.
[30] Rahman ME, Singh S (2018) Non-linear stability analysis of pressure drop oscillations in a heated channel. Ch Eng Sci 192: 176-186.
[31] Nam NN, Lee SD, You SS, Phuc BDH (2019) Dynamical Analysis and Active Control for Flow Instabilities in Boiling Microchannel. Int J Heat Mass Tran 37(1): 203-211.
[32] Doyle J (1982) Analysis of feedback systems with structured uncertainties. IEE P-Contr Theor Ap.
[33] Zhang T, Wen JT, Julius A, Bai H, Peles Y, Jensen MK (2010) Parallel-channel flow instabilities and active control schemes in two-phase microchannel heat exchanger systems. IEEE Contr P.
[34] Shahnazari M, Amjadi Golpayegani A, Saberi A (2020) Modeling and parametric analysis of two-phase fluid stability in boiling process in a thermal channel. Amirkabir J Mech Eng.
[35] Jin Q, Wen JT, Narayanan S (2019) Characteristics of pressure drop oscillation in a microchannel cooling system. App Therm Eng 160: 113849.
[36] Muñoz-Cobo JL, Verdú G (1991) Aplication of Hopf bifurcation theory and variational methods to the study of limit cycles in boiling water reactors. Ann Nucl Energy 18(5): 269-302.
[37] Padki MM, Palmer K, Kakac S, Veziroǧlu TN (1992) Bifurcation analysis of pressure-drop oscillations and the Ledinegg instability. Int J Heat Mass Tran 35(2): 525-532.
[38] Ledinegg M (1938) Instability flow during natural forced circulation. Warme 61: 891-898.
[39] Muir P (1999) Optimal discrete and continuous mono‐implicit Runge–Kutta schemes for BVODEs. Adv Comp Math 10(2): 135-167.
[40] Muir P, Adams M (2000) Mono-implicit Runge–Kutta–Nyström methods for boundary value ordinary differential equations. Tech Rpt Saint Mary’s University.