Bibliography

More information of various applications and benchmarking of the developed software tools can be found in the publications listed below.

Reference	Keywords
N. Luxcey, H. Ormberg, E. Passano (2011): Global Analysis of a Floating Wind Turbine Using an Aero-Hydro-Elastic Numerical Model. Part II: Benchmark Study, OMAE2011-50088	wind, FWT,
H. Ormberg, E. Passano, N. Luxcey (2011): Global Analysis of a Floating Wind Turbine Using an Aero-Hydro-Elastic Model. Part I: Code Development and Case study, OMAE2011-50114	wind, FWT,
T. Sauder, V. Chabaud, M. Thys, E. Bachynski, L. O. Sæter (2016): Real-Time Hybrid Model Testing of a Braceless Semi-Submersible Wind Turbine. Part I: The Hybrid Approach, OMAE2016-54435	wind, FWT,
Erin E. Bachynski (2014): Design and Dynamic Analysis of Tension Leg Platform Wind Turbines, PhD thesis, NTNU, Trondheim, Norway	wind, FWT, TLP
Harald Ormberg and Erin E. Bachynski (2012): Global analysis of floating wind turbines: Code development, model sensitivity and benchmark study, ISOPE	wind, FWT,
H. Ormberg and Erin E. Bachynski (2015) : Sensitivity of Estimated Tower Fatigue to Wind Modeling for a Spar Floating Wind Turbine , ISOPE	wind, FWT, spar
Madjid Karimirad, Constantine Michailides (2016): V-shaped semisubmersible offshore wind turbine subjected to misaligned wave and wind, Journal of renewable and sustainable energy	wind, FWT
Petter Andreas Berthelsen, Erin E. Bachynski, Madjid Karimirad, Maxime Thys (2016): Real-Time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine: Part III — Calibration of a Numerical Model, OMAE2016-54640	wind, FWT, semi
Marit I. Kvittem, Petter Andreas Berthelsen, Lene Eliassen, Maxime Thys (2018): Calibration of Hydrodynamic Coefficients for a Semi-Submersible 10 MW Wind Turbine, OMAE2018-77826	wind, FWT, semi
E. Bachynski,M. Thys, T. Sauder, ,V. Chabaud, L. O. Sæter (2016): Real-Time Hybrid Model Testing of a Braceless Semi-Submersible Wind Turbine. Part II: Experimental results, https://doi.org/10.1115/OMAE2016-54437[OMAE2016-54437	wind, FWT, semi
P. A. Bertelsen, E. Bachynski,M. Karimirad,M. Thys, (2016): Real-time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine. Part III: Calibration Of a Numerical Model, OMAE2016-54640	wind, FWT, semi
Carlos Eduardo Silva de Souza,Nuno Fonseca,Petter Andreas Bertelse, Maxima Thyus (2021): Calibration of a Time-Domain Hydrodynamic Model for A 12 MW Semi-Submersible Floating Wind Turbine, OMAE2021-62857	wind, FWT, semi, 12MW
Petter Andreas Berthelsen, Erin E. Bachynski, Madjid Karimirad, Maxime Thys(2016): Real-Time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine: Part III — Calibration of a Numerical Model, OMAE2016-54640	wind, FWT, semi
Marit I. Kvittem, Petter Andreas Berthelsen, Lene Eliassen, Maxime Thys (2018): Calibration of Hydrodynamic Coefficients for a Semi-Submersible 10 MW Wind Turbine, OMAE2018-77826	wind, FWT, 10MW , semi
Silva de Souza, Carlos Eduardo; Berthelsen, Petter Andreas; Eliassen, Lene; Bachynski, Erin Elizabeth; Engebretsen, Espen; Haslum, Herbjørn (2020) Definition of the INO WINDMOOR 12 MW base case floating wind turbine, SINTEF Ocean report no. OC2020 A-044	wind, FWT, 12MW
Carlos Eduardo Silva de Souza, Nuno Fonseca, Petter Andreas Berthelsen, Maxime Thys (2021): Calibration of a Time-Domain Hydrodynamic Model for A 12 MW Semi-Submersible Floating Wind Turbine, OMAE2021-62857	wind, FWT, 12MW, semi
Yin, D., Lie, H., Wu, J., (2019): Structural and Hydrodynamic Aspects of Steel Lazy Wave Riser in Deepwater. J. Offshore Mech. Arct. Eng. doi: 10.1115/1.4045333	Time domain VIV
Thorsen, M.J. (2016): Time Domain Analysis of Vortex-Induced Vibrations. PhD thesis, NTNU, Trondheim, Norway.	Time domain VIV
Ulveseter, J.V. (2018): Advances in semi-empirical time domain modelling of vortex-induced vibrations. PhD thesis, NTNU, Trondheim, Norway.	Time domain VIV
Wu J., Jin Z.J., Yin D.C., Passano E., Lie H., Sævik S., Tognarelli M., Grytøyr G., Andersen T., Karunakaran D., Igland R.(2020): Time domain VIV analysis tool VIVANA-TD: validations and improvements. Florida, USA: 39th International Conference on Ocean, Offshore and Arctic Engineering, OMAE2020-18795	Time domain VIV
Jie Wu, Decao Yin, Jingzhe Jin, Halvor Lie, Elizabeth Passano, Svein Sævik, Guttorm Grytøyr, Michael A. Tognarelli, Daniel Karunakaran, Torgrim Andersen, Ragnar Igland (2022): Time Domain Prediction of VIV Responses in Oscillatory Flow Conditions OMAE2022-79191	Time domain VIV, Steel Lazy Wave Riser
Passano, E., Grytøyr, G., Haslum, H. , Lie, H., Yin, D. (2022): Simulation of VIM of an Offshore Floating Wind Turbine. OMAE2022-79006	Vortex Induced Motions (VIM), FWT
Yin, D., Lie, H., Passano, E., Sævik, S.,Grytøyr, G., Tognarelli, M., Andersen, T., Igland, R., Karunakaran, D., Gaskill, C. (2022): Vortex-Induced Vibrations of a Top-Tensioned Riser in Combined Currents and Waves. OMAE-79033	Time domain VIV, TTR
Yin, D., Lie, H., Passano, E., Sævik, S.,Grytøyr, G., Tognarelli, M., Andersen, T., Igland, R., Karunakaran, D., Gaskill, C. (2022): VIV Responses of a Drilling Riser Subjected to Current and Top Motions. OMAE-79180	Time domain VIV, TTR
Jie Wu, Fengjian Jiang, Halvor Lie, Elizabeth Passano, Decao Yin, Svein Sævik, Guttorm Grytøyr, Brendan Francis Hogg, Themistocles Resvanis, Kim Vandiver (2023): Evaluation of VIV Prediction Practice of Deep-Water Steel Lazy Wave Risers (SLWRS), OMAE2023-105583	Time domain VIV, frequency domain, Shear7
Wojciech Popko, Matthias L. Huhn, Amy N. Robertson, Jason M. Jonkman, Fabian Wendt, Kolja Mülle et. al (2018): Verification of Numerical Offshore Wind Turbine Models Based on Full Scale Alpha Ventus Data within OC5 Phase III, OMAE2018-77589	wind, jacket, software verification
Wojciech Popko, Amy Robertson, Jason Jonkman, Fabian Wendt, Philipp Thomas, Kolja Müller et. al (2021): Validation of Numerical Models of the Offshore Wind Turbine From the Alpha Ventus Wind Farm Against Full-Scale Measurements Within OC5 Phase III, J. Offshore Mech. Arct. Eng. Vol. 143(1)	wind, jacket, software validation
Stian H. Sørum, Nuno Fonseca, Micheal Kent, Rui Pedro Faria (2023) : Modelling of Synthetic Fibre Rope Mooring for Floating Offshore Wind Turbines Journal of Marine Science and Engineering 2023 11(1) 193	wind, FWT, fibre rope, SYROPE, mooring
Stian H. Sørum Jan-Tore H. Horn og Jørgen Amdahl (2017): Comparison of numerical response predictions for a bottom-fixed offshore wind turbine Energy Procedia Volume 137, October 2017, Pages 89-99	wind, bottom fixed
Stian H. Sørum, Georgios Katsikogiannis, Erin E. Bachynski-Polic, Jørgen Amdahl, Ana M. Page, Rasmus T. Klinkvor (2022): Fatigue design sensitivities of large monopile offshore wind turbines, Wind Energy Volume25, Issue10 pp. 1684-1709	wind, wind field, monopile, wave spectrum, soil model, fatigue,
Stian H. Sørum, Erin E. Bachynski-Polic, Jørgen Amdahl (2022): Wind and soil model influences on the uncertainty in fatigue of monopile supported wind turbines, J. Phys.: Conf. Ser. 2362 012038	wind, wind, field, monopile, soil model, fatigue
Thomas H. Viuff, Stian H. Sørum, Marit Irene Kvittem (2022): Modelling of Fibre Rope Mooring for a Floating Offshore Wind Turbine, OMAE2023-102645	wind, FWT, fibre rope, SYROPE, mooring
Jie Wu, Decao Yin, Halvor Lie, Elizabeth Passano, Gro Sagli Baarholm, Svein Sævik (2024): Time Domain Prediction of Combined CF and IL VIV Responses under Constant Currents, OMAE2024-125654 (DRAFT)	Time domain VIV, model test comparison
Dadmarzi, F.H., Fonseca, N., Berthelsen, P.A., (2024): Contribution of Waves to Horizontal Low Frequency Motions of Floating Offshore Wind Turbines., OMAE2024-136471 (DRAFT)	wind, FWT, 12MW
Decao Yin, Elizabeth Passano, Petter A. Berthelsen (2024): Numerical Investigation of Vortex-Induced Motions (Vim) on A Semi-Submersible Floating Offshore Wind Turbine, OMAE2024-127767 (DRAFT)	Time domain VIV, VIM, FOWT, 12MW

Reference

Keywords

N. Luxcey, H. Ormberg, E. Passano (2011): Global Analysis of a Floating Wind Turbine Using an Aero-Hydro-Elastic Numerical Model. Part II: Benchmark Study, OMAE2011-50088

wind, FWT,

H. Ormberg, E. Passano, N. Luxcey (2011): Global Analysis of a Floating Wind Turbine Using an Aero-Hydro-Elastic Model. Part I: Code Development and Case study, OMAE2011-50114

wind, FWT,

T. Sauder, V. Chabaud, M. Thys, E. Bachynski, L. O. Sæter (2016): Real-Time Hybrid Model Testing of a Braceless Semi-Submersible Wind Turbine. Part I: The Hybrid Approach, OMAE2016-54435

wind, FWT,

Erin E. Bachynski (2014): Design and Dynamic Analysis of Tension Leg Platform Wind Turbines, PhD thesis, NTNU, Trondheim, Norway

wind, FWT, TLP

Harald Ormberg and Erin E. Bachynski (2012): Global analysis of floating wind turbines: Code development, model sensitivity and benchmark study, ISOPE

wind, FWT,

H. Ormberg and Erin E. Bachynski (2015) : Sensitivity of Estimated Tower Fatigue to Wind Modeling for a Spar Floating Wind Turbine , ISOPE

wind, FWT, spar

Madjid Karimirad, Constantine Michailides (2016): V-shaped semisubmersible offshore wind turbine subjected to misaligned wave and wind, Journal of renewable and sustainable energy

wind, FWT

Petter Andreas Berthelsen, Erin E. Bachynski, Madjid Karimirad, Maxime Thys (2016): Real-Time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine: Part III — Calibration of a Numerical Model, OMAE2016-54640

wind, FWT, semi

Marit I. Kvittem, Petter Andreas Berthelsen, Lene Eliassen, Maxime Thys (2018): Calibration of Hydrodynamic Coefficients for a Semi-Submersible 10 MW Wind Turbine, OMAE2018-77826

wind, FWT, semi

E. Bachynski,M. Thys, T. Sauder, ,V. Chabaud, L. O. Sæter (2016): Real-Time Hybrid Model Testing of a Braceless Semi-Submersible Wind Turbine. Part II: Experimental results, https://doi.org/10.1115/OMAE2016-54437[OMAE2016-54437

wind, FWT, semi

P. A. Bertelsen, E. Bachynski,M. Karimirad,M. Thys, (2016): Real-time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine. Part III: Calibration Of a Numerical Model, OMAE2016-54640

wind, FWT, semi

Carlos Eduardo Silva de Souza,Nuno Fonseca,Petter Andreas Bertelse, Maxima Thyus (2021): Calibration of a Time-Domain Hydrodynamic Model for A 12 MW Semi-Submersible Floating Wind Turbine, OMAE2021-62857

wind, FWT, semi, 12MW

Petter Andreas Berthelsen, Erin E. Bachynski, Madjid Karimirad, Maxime Thys(2016): Real-Time Hybrid Model Tests of a Braceless Semi-Submersible Wind Turbine: Part III — Calibration of a Numerical Model, OMAE2016-54640

wind, FWT, semi

Marit I. Kvittem, Petter Andreas Berthelsen, Lene Eliassen, Maxime Thys (2018): Calibration of Hydrodynamic Coefficients for a Semi-Submersible 10 MW Wind Turbine, OMAE2018-77826

wind, FWT, 10MW , semi

Silva de Souza, Carlos Eduardo; Berthelsen, Petter Andreas; Eliassen, Lene; Bachynski, Erin Elizabeth; Engebretsen, Espen; Haslum, Herbjørn (2020) Definition of the INO WINDMOOR 12 MW base case floating wind turbine, SINTEF Ocean report no. OC2020 A-044

wind, FWT, 12MW

Carlos Eduardo Silva de Souza, Nuno Fonseca, Petter Andreas Berthelsen, Maxime Thys (2021): Calibration of a Time-Domain Hydrodynamic Model for A 12 MW Semi-Submersible Floating Wind Turbine, OMAE2021-62857

wind, FWT, 12MW, semi

Yin, D., Lie, H., Wu, J., (2019): Structural and Hydrodynamic Aspects of Steel Lazy Wave Riser in Deepwater. J. Offshore Mech. Arct. Eng. doi: 10.1115/1.4045333

Time domain VIV

Thorsen, M.J. (2016): Time Domain Analysis of Vortex-Induced Vibrations. PhD thesis, NTNU, Trondheim, Norway.

Time domain VIV

Ulveseter, J.V. (2018): Advances in semi-empirical time domain modelling of vortex-induced vibrations. PhD thesis, NTNU, Trondheim, Norway.

Time domain VIV

Wu J., Jin Z.J., Yin D.C., Passano E., Lie H., Sævik S., Tognarelli M., Grytøyr G., Andersen T., Karunakaran D., Igland R.(2020): Time domain VIV analysis tool VIVANA-TD: validations and improvements. Florida, USA: 39th International Conference on Ocean, Offshore and Arctic Engineering, OMAE2020-18795

Time domain VIV

Jie Wu, Decao Yin, Jingzhe Jin, Halvor Lie, Elizabeth Passano, Svein Sævik, Guttorm Grytøyr, Michael A. Tognarelli, Daniel Karunakaran, Torgrim Andersen, Ragnar Igland (2022): Time Domain Prediction of VIV Responses in Oscillatory Flow Conditions OMAE2022-79191

Time domain VIV, Steel Lazy Wave Riser

Passano, E., Grytøyr, G., Haslum, H. , Lie, H., Yin, D. (2022): Simulation of VIM of an Offshore Floating Wind Turbine. OMAE2022-79006

Vortex Induced Motions (VIM), FWT

Yin, D., Lie, H., Passano, E., Sævik, S.,Grytøyr, G., Tognarelli, M., Andersen, T., Igland, R., Karunakaran, D., Gaskill, C. (2022): Vortex-Induced Vibrations of a Top-Tensioned Riser in Combined Currents and Waves. OMAE-79033

Time domain VIV, TTR

Yin, D., Lie, H., Passano, E., Sævik, S.,Grytøyr, G., Tognarelli, M., Andersen, T., Igland, R., Karunakaran, D., Gaskill, C. (2022): VIV Responses of a Drilling Riser Subjected to Current and Top Motions. OMAE-79180

Time domain VIV, TTR

Jie Wu, Fengjian Jiang, Halvor Lie, Elizabeth Passano, Decao Yin, Svein Sævik, Guttorm Grytøyr, Brendan Francis Hogg, Themistocles Resvanis, Kim Vandiver (2023): Evaluation of VIV Prediction Practice of Deep-Water Steel Lazy Wave Risers (SLWRS), OMAE2023-105583

Time domain VIV, frequency domain, Shear7

Wojciech Popko, Matthias L. Huhn, Amy N. Robertson, Jason M. Jonkman, Fabian Wendt, Kolja Mülle et. al (2018): Verification of Numerical Offshore Wind Turbine Models Based on Full Scale Alpha Ventus Data within OC5 Phase III, OMAE2018-77589

wind, jacket, software verification

Wojciech Popko, Amy Robertson, Jason Jonkman, Fabian Wendt, Philipp Thomas, Kolja Müller et. al (2021): Validation of Numerical Models of the Offshore Wind Turbine From the Alpha Ventus Wind Farm Against Full-Scale Measurements Within OC5 Phase III, J. Offshore Mech. Arct. Eng. Vol. 143(1)

wind, jacket, software validation

Stian H. Sørum, Nuno Fonseca, Micheal Kent, Rui Pedro Faria (2023) : Modelling of Synthetic Fibre Rope Mooring for Floating Offshore Wind Turbines Journal of Marine Science and Engineering 2023 11(1) 193

wind, FWT, fibre rope, SYROPE, mooring

Stian H. Sørum Jan-Tore H. Horn og Jørgen Amdahl (2017): Comparison of numerical response predictions for a bottom-fixed offshore wind turbine Energy Procedia Volume 137, October 2017, Pages 89-99

wind, bottom fixed

Stian H. Sørum, Georgios Katsikogiannis, Erin E. Bachynski-Polic, Jørgen Amdahl, Ana M. Page, Rasmus T. Klinkvor (2022): Fatigue design sensitivities of large monopile offshore wind turbines, Wind Energy Volume25, Issue10 pp. 1684-1709

wind, wind field, monopile, wave spectrum, soil model, fatigue,

Stian H. Sørum, Erin E. Bachynski-Polic, Jørgen Amdahl (2022): Wind and soil model influences on the uncertainty in fatigue of monopile supported wind turbines, J. Phys.: Conf. Ser. 2362 012038

wind, wind, field, monopile, soil model, fatigue

Thomas H. Viuff, Stian H. Sørum, Marit Irene Kvittem (2022): Modelling of Fibre Rope Mooring for a Floating Offshore Wind Turbine, OMAE2023-102645

wind, FWT, fibre rope, SYROPE, mooring

Jie Wu, Decao Yin, Halvor Lie, Elizabeth Passano, Gro Sagli Baarholm, Svein Sævik (2024): Time Domain Prediction of Combined CF and IL VIV Responses under Constant Currents, OMAE2024-125654 (DRAFT)

Time domain VIV, model test comparison

Dadmarzi, F.H., Fonseca, N., Berthelsen, P.A., (2024): Contribution of Waves to Horizontal Low Frequency Motions of Floating Offshore Wind Turbines., OMAE2024-136471 (DRAFT)

wind, FWT, 12MW

Decao Yin, Elizabeth Passano, Petter A. Berthelsen (2024): Numerical Investigation of Vortex-Induced Motions (Vim) on A Semi-Submersible Floating Offshore Wind Turbine, OMAE2024-127767 (DRAFT)

Time domain VIV, VIM, FOWT, 12MW