]1[  محمدپور، جواد، بررسی تجربی پارامترهای هندسی رزوناتور هلمهولتز بر روی ساختارهای جریان آن بااستفاده از تکنیک PIV پایان نامه ارشد، دانشکده مهندسی مکانیک دانشگاه صنعتی اصفهان، 1396.

[2] Griffin S, Huybrechts S (2000) Coupled Helmholtz Resonators for Acoustic Attenuation. J. Vib. Acoust. 123(1): 11–17.

[3] Bellucci V, Flohr P, Paschereit C O, Magni F (2004) The Use of Helmholtz Resonators for Damping Acoustic Pulsations in Industrial Gas Turbines. J. Eng. Gas Turbines Power 126(2): 271-275.

[4] Este`ve SJ, Johnson ME (2004) Development of an Adaptive Helmholtz Resonator for Broadband Noise Control. Proceedings of the ASME 2004 International Mechanical Engineering Congress and Exposition. Noise Control and Acoustics, USA, 1: 47–53.

[5] Nagaya K, Hano Y, Suda A (2001) Silencer consisting of two-stage Helmholtz resonator with auto-tuning control. The J. Acoust. Soci. America 110.

[6] Yasuda T, Wu C, Nakagawa N, Nagamura K (2013) Studies on an automobile muffler with the acoustic characteristic of low-pass filter and Helmholtz resonator. Applied Acoustics. 74(1): 49–57

[7]  Dupe`re I D J, Dowling A P (2005) The Use of Helmholtz Resonators in a Practical Combustor. J. Eng. Gas Turbines Power 127(2): 268–275.

[8]  Arthurs D, Ziada S (2009) Flow-excited acoustic resonances of coaxial side branches in an annular duct. J. Flu. Struct. 25(1): 42–59.

[9] Yang L, Chu Z, Zhao D, He Y, Chen X (2018) Analysis and Control for the Intake Noise of a Vehicle. Acoustics Australia 46: 259–267.

[10] Slaton W, Zeegers J (2005) Acoustic power measurements of a damped aeroacoustically driven resonator. The J. Acoust. Soci. America 118(1): 83–91.

[11] Matova S. P, R. Elfrink, R. J. M. Vullers R. Van Schaijk (2011) Harvesting energy from airflow with a micromachined piezoelectric harvester inside a Helmholtz. J. Micromech. Microeng. 21(10): 104001.

[12] Allam S (2015) Low noise intake system development for turbocharged IC engines using compact high frequency side branch resonators .Science and Education 1(1): 12-23.

[13] Tebbutt J, Vahdati M, Carolan D, Dear J (2017) Numerical investigation on an array of helmholtz resonators for the reduction of micro-pressure waves in modern and future high-speed rail tunnel systems. J. Sound Vibrat. 26: 13-26.

[14] de Jong A, Bijl H (2010) Experimental and numerical investigation of the flow induced resonance of slender deep cavities that resemble automotive door gaps. 16th AIAA/CEAS Aeroacoustics Conference :3863.

[15] Ziada S (1994) A flow visualization study of flow-acoustic coupling at the mouth of a resonant side-branch. J. Flu. Struct. 8(4): 391–416.

[16] Sun D W, Eames I W (1995) Recent developments in the design theories and applications of ejectors. J. Instit. Energ. 68: 65-79.

[17] Kong F, Kim H (2015) Analytical and computational studies on the performance of a two-stage ejector–diffuser system. Int. J. Heat Mass Transf. 85: 71-87.

[18] Chen W, Shi C, Zhang S, Chen H, Chong D, Yan J (2017) Theoretical analysis of ejector refrigeration system performance under overall modes. Applied Energy 185(2): 2074-2084.

[19] Tashtoush B, Al-Nimr M, Khasawneh M (2019) Review of ejector design, performance, and applications. Applied Energy 240: 138–172.

[20] Tang Y, Liu Z, Shi C, Li Y (2018) A novel steam ejector with pressure regulation to optimize the entrained flow passage for performance improvement. MED-TVC desalination system, Energy 158: 305-316.

[21] Tang Y, Liu Z, Li Y, Shi C (2018) Combined auxiliary entrainment and structure optimization for performance improvement of steam ejector with consideration of back pressure variation. Energy Conversion and Management 166.

[22] Tang Y, Liu Z, Li Y, Shi C, Wu H (2017) Performance improvement of steam ejectors under designed parameters with auxiliary entrainment and structure optimization for high energy efficiency. Energy Conversion and Management 153: 12-21.

[23] Knight J (1966) The use of steam ejectors for the vacuum degassing of steel. Proceedings of the Institution of Mechanical Engineers 188(1): 225-241.

[24] Askalany A, Ali E S, Mohammed R H (2020) A novel cycle for adsorption desalination system with two stages-ejector for higher water production and efficiency. Desalination 496.

[25] Akteriana S (2011) Improving the energy efficiency of traditional multi-stage steam-jet-ejector vacuum systems for deodorizing edible oils. Procedia Food Science 1: 1785-1791.

[26] Riffat S, Jiang L, Gan G (2011) Recent development in ejector technology-A review. International J. Ambient Energ. 26(1): 13-26.

[27] Cao X, Liang L S X, Zhang C (2022) Performance analysis of an ejector-assisted two-stage evaporation single-stage vapor-compression cycle. Applied Thermal Engineering.

[28] Gurwell M A, Yung Y L (1993) Fractionation of hydrogen and deuterium on Venus due to collisional ejection. Planetary and space science 41(2): 91-104.

[29] Zhang S, Luo J, Wang Q, Chen G (2018) Step utilization of energy with ejector in a heat driven freeze drying system. Energy 164: 734-744.

[30] Strušnik D, Marčič M, Golob M, Hribernik A, Živić M, Avsec K (2016) Energy efficiency analysis of steam ejector and electric vacuum pump for a turbine condenser air extraction system based on supervised machine learning modelling. Applied Energy 173: 386-405.

[31] Sharapov S O, Panchenko V, Starchenko M, Protsenko M, Kovtun V (2019) Improvement of the vacuum cooling system for biodiesel production. J. Eng. Sci.

[32] Yang Y, Du W, Ma T, Lin W, Cong M, Yang H, Yu Z(2020) Numerical studies on ejector structure optimization and performance prediction based on a novel pressure drop model for proton exchange membrane fuel cell anode. Int. J.Hydrogen Energy 45: 23343-23352.

[33] Wen C, Rogie B, Kærn M R, Rothuizen E (2020) A first study of the potential of integrating an ejector in hydrogen fueling. Applied Energy 260.

[34] Yu M, Yu J (2021) Thermodynamic analyses of a flash separation ejector refrigeration cycle with zeotropic mixture for cooling applications. Energy Conversion and Management 229.

[35] Balamurugan S, Lad M D, Gaikar V G, Patwardhan A W (2007) Hydrodynamics mass transfer characteristics of gas–liquid ejectors. Chemic. Eng. J. 131: 83-103.

[36] Balamurugan S, Gaikar V G, Patwardhan A W (2008) Effect of ejector configuration on hydrodynamic characteristics of gas–liquid ejectors. Chemical Engineering Science 63: 721-731.

[37] Chunnanond K, Aphornratana S (2004) Ejectors: applications in refrigeration technology. Renewable and Sustainable Energy Reviews 8: 129-155.

[38] Ramesh A S, Sekhar S J (2018) Experimental and numerical investigations on the effect of suction chamber angle and nozzle exit position of a steam-jet ejector. Energy 164: 1097-1113.

[39] Wu H, Liu Z, Han B, Li Y (2014) Numerical investigation of the influences of mixing chamber geometries on steam ejector performance. Desalination 353: 15-20.

[40] German R, Bauer R (1961) Effects of diffuser length on the performance of ejectors without induced flow. Engineering.

[41] Marum V J d O et al. (2021) Performance analysis of a water ejector using CFD simulations and mathematical modeling. Energy 220.

[42] Yadav R L, Patwardhan A W (2008) Design aspects of ejectors: Effects of suction chamber geometry Chemical Engineering Science 63: 3886–3897.

[43] Dong J et al. (2020) Numerical investigation on the influence of mixing chamber length on steam ejector performance. Applied Thermal Engineering 174.

[44] Wu Y, Zhao H, Zhang C, Wang L, Han J (2018) Optimization analysis of structure parameters of steam ejector based on CFD and orthogonal test. Energy 151: 79-93.

[45] Li S, Yan J, Liu Z, Yao Y, Li X, Wen N (2019) Optimization on crucial ejector geometries in a multi-evaporator refrigeration system for tropical region refrigerated trucks. Energy 189.

[46] Wen H, Yan J (2021) Effect of mixing chamber length on ejector performance with fixed/varied area ratio under three operating conditions in refrigerated trucks. Applied Thermal Engineering 197.

[47] Fu W, Liu Z, Li Y, Wu H, Tang Y (2018) Numerical study for the influences of primary steam nozzle distance and mixing chamber throat diameter on steam ejector performance. International J. Therm. Sci. 132.

[48] Yan J, Wen H (2022) Multi-round optimization of an ejector with different mixing chamber geometries at various liquid volume fractions of inlet fluids. Applied Thermal Engineering 200.

[49] Sierra-Pallares J, del Valle J G, Paniagua J M, García J, Méndez-Bueno C, F Castro (2018) Shape optimization of a long-tapered R134a ejector mixing chamber. Energy: 422-438.

[50] Palacz M et al. (2016) CFD-based shape optimization of a CO2 two-phase ejector mixing section. Applied Thermal Engineering 95: 62-69.

[51] Samsam-Khayani H, Park S H, Ha M Y, Kim K C, Yoon S Y (2022) Design modification of two-dimensional supersonic ejector via the adjoint method 200(5).

[52] Deng X, Dong J, Wang Z, Tu J (2017) Numerical analysis of an annular water–air jet pump with self-induced oscillation mixing chamber. The Journal of Computational Multiphase Flows 9: 47-53.

[53] Selamet E, Selamet A, Iqbal A, Kim H (2011) Effect of Flow on Helmholtz Resonator Acoustics: A Three-Dimensional Computational Study vs. Experiments. SAE Technical Paper: 15-21.

[54] Buehn J P, Slaboch P E (2015) Computational Study of Active Flow Control of a Flow-Excited Helmholtz Resonator. 22^nd AIAA Computational Fluid Dynamics Conference.

[55] Denayer H, Roeck W D, Toulorge T, Desmet W (2013) Acoustic Characterization of a Helmholtz Resonator Under Grazing Flow Conditions Using a Hybrid Methodology. 19^th AIAA/CEAS Aeroacoustics Conference.

[56] Ghanadi F, Arjomandi M, Zander A C, Cazzolato B S (2013) Velocity Fluctuations within the Turbulent Flow over a Flow-excited Helmholtz Resonator: The 2013 International Conference on Mechanical and Materials. Stockholm, Sweden.

[57] Kweon Y H, Aoki T, Miyazato Y, Kim H D, Setoguchi T (2006) Computational study of an incident shock wave into a Helmholtz resonator: Computers & Fluids. 35: 1252–1263.