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Journal Articles
Edward J. Ransley, Scott A. Brown, Emma C. Edwards, Tom Tosdevin, Kieran Monk, Alastair M. Reynolds, Deborah Greaves, Martyn R. Hann
Journal:
ASME Open Journal of Engineering
Article Type: Research Papers
ASME Open J. Engineering. January 2023, 2: 021017.
Paper No: AOJE-23-1006
Published Online: March 16, 2023
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 1 ( a ) Real-time hybrid testing workflow (adapted from Ref. [ 3 ]) and ( b ) 1:70 Froude-scaled VolturnUS-S platform in the COAST Laboratory Ocean Basin at the University of Plymouth, UK More
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 2 Controller regulation trajectory for ( a ) thrust, ( b ) rotor speed, and ( c ) blade pitch showing the four pairs of select parameters (summarized in Table 1 ) More
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 3 Comparisons between the full-scale OpenFAST solutions (target) and the surrogate model predictions for a subset of the testing dataset for ( a ) case 2, ( b ) case 4, and ( c ) case 6 More
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 4 Laboratory-scale (1:70) measurements of the ( a ) surface elevation spectra, ( b ) heave response spectra, ( c ) surge response spectra, and ( d ) pitch response spectra with different aerodynamic loading conditions More
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 5 Surge response spectra around the surge natural frequency of the system More
Image
in Real-Time Hybrid Testing of a Floating Offshore Wind Turbine Using a Surrogate-Based Aerodynamic Emulator
> ASME Open Journal of Engineering
Published Online: March 16, 2023
Fig. 6 Pitch response spectra around the pitch natural frequency of the system More
Journal Articles
Ayush Boral, Souvik Dutta, Anwesha Das, Ankit Kumar, Nilotpala Bej, Pooja Chaubdar, Biranchi Narayana Das, Atal Bihari Harichandan
Journal:
ASME Open Journal of Engineering
Article Type: Research Papers
ASME Open J. Engineering. January 2023, 2: 021016.
Paper No: AOJE-22-1086
Published Online: March 10, 2023
Journal Articles
Journal:
ASME Open Journal of Engineering
Article Type: Research Papers
ASME Open J. Engineering. January 2023, 2: 021014.
Paper No: AOJE-22-1135
Published Online: March 10, 2023
Journal Articles
Journal:
ASME Open Journal of Engineering
Article Type: Research Papers
ASME Open J. Engineering. January 2023, 2: 021015.
Paper No: AOJE-23-1014
Published Online: March 10, 2023
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 1 Geometry of the flow domain More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 2 Computational model and close-up view of the circular cylinder More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 3 Y component of velocity for different mesh fineness More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 4 ( a ) Coefficient of lift, ( b ) coefficient of drag, and ( c ) Strouhal number for a cylinder attached with SETE at Re = 100 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 5 Vorticity contours of flow past circular cylinder at Re = 100: ( a ) plate length ( L / D ) = 0.1, ( b ) plate length ( L / D ) = 1.5, and ( c ) plate length ( L / D ) = 2.0 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 6 ( a ) Coefficient of lift, ( b ) coefficient of drag, and ( c ) Strouhal number for cylinder attached with SETE at Re = 5000 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 7 Vorticity contours of flow past circular cylinder at Re = 5000: ( a ) plate length ( L / D ) = 0.1, ( b ) plate length ( L / D ) = 1.2, and ( c ) plate length ( L / D ) = 2.0 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 8 ( a ) Coefficient of lift, ( b ) coefficient of drag, and ( c ) Strouhal number for cylinder attached with SETE at Re = 100,000 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 9 Vorticity contours of flow past circular cylinder at Re = 100,000: ( a ) plate length ( L / D ) = 0.1, ( b ) plate length ( L / D ) = 0.6, and ( c ) plate length ( L / D ) = 2.0 More
Image
in Drag Reduction for Flow Past Circular Cylinder Using Static Extended Trailing Edge
> ASME Open Journal of Engineering
Published Online: March 10, 2023
Fig. 10 Streamlines of the recirculation zone in the downstream of the cylinder More