optimization of wind plant layouts using an adjoint approach
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2017
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Abstract
Using adjoint optimization and three-dimensional steady-state
Reynolds-averaged Navier–Stokes (RANS) simulations, we present a new
gradient-based approach for optimally siting wind turbines within
utility-scale wind plants. By solving the adjoint equations of the flow
model, the gradients needed for optimization are found at a cost that is
independent of the number of control variables, thereby permitting
optimization of large wind plants with many turbine locations. Moreover,
compared to the common approach of superimposing prescribed wake deficits
onto linearized flow models, the computational efficiency of the adjoint
approach allows the use of higher-fidelity RANS flow models which can capture
nonlinear turbulent flow physics within a wind plant. The steady-state RANS
flow model is implemented in the Python finite-element package
FEniCS and the derivation and solution of the discrete adjoint
equations are automated within the dolfin-adjoint framework.
Gradient-based optimization of wind turbine locations is demonstrated for
idealized test cases that reveal new optimization heuristics such as
rotational symmetry, local speedups, and nonlinear wake curvature effects.
Layout optimization is also demonstrated on more complex wind rose shapes,
including a full annual energy production (AEP) layout optimization over 36
inflow directions and 5 wind speed bins.
| Reference Key |
king2017windoptimization
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|---|---|
| Authors | ;R. N. King;R. N. King;K. Dykes;P. Graf;P. E. Hamlington |
| Journal | girişimcilik ve kalkınma dergisi |
| Year | 2017 |
| DOI |
10.5194/wes-2-115-2017
|
| URL | |
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