[1] Abazari, A., Dynamic Response of a Combined Spar-Type FOWT and OWC-WEC by a Simplified Approach. Renewable Energy Research and Applications, 2023. 4(1): p. 66-77.
[2] Han, Y. et al., Stability and dynamic response analysis of a submerged tension leg platform for offshore wind turbines. Ocean engineering, 2017. 129: p. 68-82.
[3] Oguz, E. et al., Experimental and numerical analysis of a TLP floating offshore wind turbine. Ocean Engineering, 2018. 147: p. 591-605.
[4] Abdussamie, N. et al., Experimental investigation of wave-in-deck impact events on a TLP model. Ocean Engineering, 2017. 142: p. 541-562.
[5] Abrishamchi, A. and B. Younis, LES and URANS predictions of the hydrodynamic loads on a tension-leg platform. Journal of fluids and structures, 2012. 28: p. 244-262.
[6] Kim, C.-H., C.-H. Lee, and J.-S. Goo, A dynamic response analysis of tension leg platforms including hydrodynamic interaction in regular waves. Ocean engineering, 2007. 34(11-12): p. 1680-1689.
[7] Bachynski, E.E. and T. Moan, Design considerations for tension leg platform wind turbines. Marine Structures, 2012. 29(1): p. 89-114.
[8] Senjanović, I., M. Tomić, and S. Rudan, Investigation of nonlinear restoring stiffness in dynamic analysis of tension leg platforms. Engineering structures, 2013. 56: p. 117-125.
[9] Yu, Y. et al., Investigation of TLP's hydrodynamic response with different tendon connection angles. Theoretical and Applied Mechanics Letters, 2018. 8(4): p. 291-297.
[10] Gu, J.-y., J.-m. Yang, and H.-n. Lv, Studies of TLP dynamic response under wind, waves and current. China Ocean Engineering, 2012. 26(3): p. 363-378.
[11] Ren, N. et al., Experimental and numerical study of dynamic responses of a new combined TLP type floating wind turbine and a wave energy converter under operational conditions. Renewable Energy, 2020. 151: p. 966-974.
[12] Chodnekar, Y.P. and S. Mandal, Hydrodynamic analysis of floating offshore wind turbine. Procedia Engineering, 2015. 116: p. 4-11.
[13] Huang, R. et al. Study on Mooring Economy and Stability of Floating Wind Turbine. in 2020 5th Asia Conference on Power and Electrical Engineering (ACPEE). 2020. IEEE.
[14] Gu, J.-y., J.-m. Yang, and H.-n. Lü, Numerical simulations and model tests of the mooring characteristic of a tension leg platform under random waves. China Ocean Engineering, 2013. 27(5): p. 563-578.
[15] Pegalajar-Jurado, A., H. Bredmose, and M. Borg, Multi-level hydrodynamic modelling of a scaled 10MW TLP wind turbine. Energy Procedia, 2016. 94: p. 124-132.
[16] Zhao, Y.-s. et al., Coupled dynamic response analysis of a multi-column tension-leg-type floating wind turbine. China Ocean Engineering, 2016. 30(4): p. 505-520.
[17] Huang, H. and S.-r. Zhang, Dynamic analysis of tension leg platform for offshore wind turbine support as fluid-structure interaction. China Ocean Engineering, 2011. 25(1): p. 123-131.
[18] Ma, Z. et al., Experimental and numerical study on the multi-body coupling dynamic response of a Novel Serbuoys-TLP wind turbine. Ocean Engineering, 2019. 192: p. 106570.
[19] Tabeshpour, M.R., A. Ahmadi, and E. Malayjerdi, Investigation of TLP behavior under tendon damage. Ocean Engineering, 2018. 156: p. 580-595.
[20] Madsen, F. et al., Experimental analysis of the scaled DTU10MW TLP floating wind turbine with different control strategies. Renewable Energy, 2020. 155: p. 330-346.
[21] Nematbakhsh, A. et al., Comparison of wave load effects on a TLP wind turbine by using computational fluid dynamics and potential flow theory approaches. Applied Ocean Research, 2015. 53: p. 142-154.
[22] Żywicki, J. et al., Design of structure of Tension Leg Platform for 6 MW offshore wind turbine based on FEM analysis. Polish Maritime Research, 2017.
[23] Razaghian, A., M. Seif, and M. Tabeshpour, Investigation of tendons and TLP behavior in damaged condition. Journal Of Marine Engineering, 2014. 9(18): p. 23-34.
[24] Seif, M., A. Razaghian, and M. Tabeshpour, EXPERIMENTAL MODELING REQUIREMENTS FOR TLP PLATFORMS. 2013.
[25] Journee, J.M. and W. Massie, Introduction in offshore hydromechanics (OT3600). TUDelft, Faculty of Marine Technology, Ship Hydromechanics Laboratory, Report No. 1267-K, Lecture Notes, 2001.
[26] Yakhot, V. et al., Development of turbulence models for shear flows by a double expansion technique. Physics of Fluids A: Fluid Dynamics, 1992. 4(7): p. 1510-1520.
[27] Nersesian, R. and S. Mahmood, International association of classification societies, in Handbook of Transnational Economic Governance Regimes. 2010, Brill Nijhoff. p. 765-774.
[28] Goda, Y., Statistical variability of sea state parameters as a function of wave spectrum. Coastal Engineering in Japan, 1988. 31(1): p. 39-52.
[29] Goda, Y., Random seas and design of maritime structures. Vol. 33. 2010: World Scientific Publishing Company.