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CFD Studies of Wake Characteristics and Power Capture of Wind Turbines With Trailing Edge Flaps
Trailing edge flap (TEF) devices will change downstream wake development in wind farms comprising smart rotors, which in turn affect the performance of downstream wind turbines. To study the influence of TEFs on downstream wake development and power capture of wind turbines in wind farms, computatio...
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Published in: | IEEE access 2020, Vol.8, p.7349-7361 |
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description | Trailing edge flap (TEF) devices will change downstream wake development in wind farms comprising smart rotors, which in turn affect the performance of downstream wind turbines. To study the influence of TEFs on downstream wake development and power capture of wind turbines in wind farms, computational fluid dynamics (CFD) simulations using the three-dimensional rotor model are performed in this paper. The CFD software Fluent is adopted to simulate a wind farm with two tandem wind turbines with TEFs at rated and below rated turbulent wind conditions. Under the 11.4 m/s turbulent wind conditions, the results show that the deflection of the TEF increases the velocity deficit and reduces the wake width, making the wake more complicated. And the positive TEF angle has a greater influence on downstream wake than the negative TEF angle. Additionally, under the 9 m/s turbulent wind conditions, the total power of the two wind turbines increases by 6.5% when the TEF angles are 6°. |
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subjects | Aerodynamics Automotive components Blades Computational fluid dynamics Fluid flow horizontal axis wind turbine Mathematical models power capture Rotors smart rotor Three dimensional models trailing edge flap Trailing edge flaps Trailing edges Turbines Turbulent wind wake development Wind farms Wind power Wind power generation Wind turbines |
title | CFD Studies of Wake Characteristics and Power Capture of Wind Turbines With Trailing Edge Flaps |
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