[1] Akwa J.V., Vielmo H.A., Petry A.P.: A review on the performance of Savonius wind turbines. Renew. Sust. Energ. Rev. 16(2012), 5, 3054–3064.
[2] Masdari M., Tahani M., Naderi M.H., Babayan N.: Optimization of airfoil Based Savonius wind turbine using coupled discrete vortex method and salp swarm algorithm. J. Clean. Prod. 222(2019), 47–56.
[3] Alom N., Saha U.K..: Influence of blade profiles on Savonius rotor performance: Numerical simulation and experimental validation. Energ. Convers. Manage. 186(2019), 267–277.
[4] Zemamou M., Aggour M., Toumi A.: Review of savonius wind turbine design and performance. Energy Proced. 141(2017), 383–388.
[5] Tartuferi M., D’Alessandro V., Montelpare S., Ricci R.: Enhancement of savonius wind rotor aerodynamic performance: A computational study of new blade shapes and curtain systems. Energy 79(2015), 371–384.
[6] Mauro S., Brusca S., Lanzafame R., Messina M.: CFD modeling of a ducted Savonius wind turbine for the evaluation of the blockage effects on rotor performance. Renew. Energ. 141(2019), 28–39.
[7] Sobczak K., Obidowski D., Reorowicz P., Marchewka E.: Numerical investigations of the savonius turbine with deformable blades. Energies 13(2020), 14, 3717.
[8] Obidowski D., Sobczak K., Jozwik K., Reorowicz P.: Vertical Axis Wind Turbine with a Variable Geometry of Blades. European Patent Application 19199085.2, 24 Sept. 2019.
[9] Kamoji M.A., Kedare S.B., Prabhu S.V..: Experimental investigations on single stage modified Savonius rotor. Appl. Energ. 86(2009), 7-8, 1064–1073.
[10] Lipian M., Czapski P., Obidowski D.: Fluid-structure interaction numerical analysis of a small, urban wind turbine blade. Energies 13(2020), 7, 1–15.
[11] Marzec Ł., Bulinski Z., Krysinski T.: Fluid structure interaction analysis of the operating Savonius wind turbine. Renew. Energ. 164(2021), 272–284.
[12] Chan C.M., Bai H.L., He D.Q.: Blade shape optimization of the Savonius wind turbine using a genetic algorithm. Appl. Energ. 213(2018), 148–157.
[13] Saeed H.A.H., Elmekawy A.M.N., Kassab S.Z.: Numerical study of improving Savonius turbine power coefficient by various blade shapes. Alexandria Eng. J. 58(2019), 2, 429–441.
[14] Mohamed M.H., Janiga G., Pap E., Thcvenin D.: Optimization of Savonius turbines using an obstacle shielding the returning blade. Renew. Energ. 35(2010), 11, 2618–2626.
[15] Kacprzak K., Liskiewicz G., Sobczak K.: Numerical investigation of conventional and modified Savonius wind turbines. Renew. Energ. 60(2013), 578–585.
[16] ANSYS Inc.: ANSYS Fluent 20.2 User’s Guide. ANSYS Inc., Canonsburg, 2020.
[17] ANSYS Inc.: https://www.ansys.com/. ANSYS Inc., Canonsburg, 2020.
[18] Menter F.R., Langtry R., Völker S, Huang P.G.: Transition modelling for general purpose CFD codes. In: Proc. ERCOFTAC Int. Symp. on Engineering Turbulence Modelling and Measurements 6; ETMM6, Sardinia, 23-25 May 2005, 31–48.
[19] Kerikous E., Thévenin D.: Optimal shape of thick blades for a hydraulic Savonius turbine. Renew. Energ. 134(2019), 629–638.