Skip to content

SINTEF Blog Gå til forsiden

  • Energy
  • Ocean
  • Digital
  • Health
  • Industry
  • Climate and environment
  • Building
  • Society
  • EN
  • NO
Energy

Wind farm control: a promising way to increase green power

What if there was an inexpensive way to improve wind farms' efficiency?

Bits of data overlayed on picture of a wind farm.
author
Konstanze Kölle
Research Manager
Published: 17. Nov 2020 | Last edited: 8. Apr 2025
4 min. reading
Comments (0)

This is exactly what the FarmConners project aims to achieve: more green power from existing and upcoming wind farms, all for the price of a software update.

Most large wind farms today operate with the aim of maximising the power output at any given time. As the market share of renewables increases, wind farms will have to act more like conventional power plants: responding to the fluctuations of the energy market and providing services to the power system. Wind farm control (WFC) promises to achieve these goals, by coordinating the operation of the wind turbines within the same wind farm. However, the benefits of WFC, though broadly expected based on numerous research studies, have yet to be generally demonstrated. This is where the FarmConners project comes in.

What is Wind farm control?

Each wind turbine is by itself a complex system with aerodynamic, structural, and electromechanical dynamics. Combining a number of wind turbines in a wind farm adds even more complexity by means of the interaction between them, in particular the aerodynamic flow between wind turbines. Wakes from turbines placed further upstream reduce the available power at downstream turbines and increase their structural fatigue.  The anticipated participation of wind farms in future wholesale electricity markets provides further incentives to extend the control objectives and to mitigate structural loads.

The benefit of wind farm control (WFC) is hard to prove or quantify in real, full-scale wind farms. Researchers use therefore computer simulations and wind-tunnel experiments under controlled conditions. However, various research groups use different mathematical models and scenarios to test and validate their WFC approaches. A general consent on the benefit of WFC is needed to convince the industry to broadly operate their wind farms using WFC.

The FarmConners project

FarmConners logo

SINTEF Energi participates in the H2020 project FarmConners which brings state-of-the-art achievements, ongoing research projects and industrial interests together to remove barriers for commercial implementation of WFC. A first step towards this goal was an expert elicitation which emphasized the importance of validation campaigns and a stronger collaboration across different disciplines working on WFC.

To support the latter, FarmConners organizes public workshops and has a mobility scheme giving consortium members the chance to visit each other. However, the ongoing pandemic also forced us to pause such activities and to extend the successful virtual collaboration that had already been implemented before.

Two examples of successful outcomes of our collaboration during the pandemic are:

1- FarmConners Wind Farm Control Benchmark

FarmConners Wind Farm Control Benchmark

Careful validation of the modelling and control actions is of vital importance to build confidence in the value of coordinated WFC. The efficiency of flow models applied to WFC should be evaluated to provide reliable assessment of the performance of WFC.

Therefore, FarmConners launched its Wind Farm Control benchmark for code comparison.

The benchmark provides common test cases to demonstrate the potential benefits of wind farm flow control, such as increased power production and mitigation of loads. It builds on available data sets from previous and ongoing campaigns: synthetic data from high-fidelity simulations, measurements from wind tunnel experiments, and field data from a real wind farm.

A description of the benchmark, including a demonstration on how to participate and access the data can be found here: https://farmconners.readthedocs.io/en/latest/index.html

2- FarmConners Market Showcases

Wind turbines with growing chart from gold coins around.

The current operation of wind farms with the primary objective of power maximisation may no longer be feasible with a higher share of wind power in the energy mix. In case of falling electricity prices, operators could curtail power generation in favour of mitigating structural loads. This flexibility provided by WFC could maximise profits.

The FarmConners project launched a set of showcases that researchers within the WFC community can use to assess the impact of their control strategies. These showcases are based on the TotalControl Reference Wind Power Plant with simulated weather data and energy system scenarios to estimate electricity prices for both 2020 and 2030, provided courtesy of the DTU Balancing Tool Chain.

A description of the market showcases, including information on how to participate and access the data can be found here: https://farmconners-market-showcase.readthedocs.io/en/latest/index.html

First results of both the FarmConners Wind Farm Control Benchmark and the FarmConners Market Showcases will be presented at the Wind Energy Science Conference 2021. Everyone is invited to participate and to become a co-author of the final publications.

More information and news about FarmConners can be found at the FarmConners project website.

 

Flag of the European Union

The FarmConners project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No 857844.

Comments

No comments yet. Be the first to comment!

Leave a comment Cancel reply

Your email address will not be published. Required fields are marked *

More about Energy

Infographic showing the flow of thermal energy storage (TES) from surplus heat or cold to end users. On the left, red and blue thermometer icons represent surplus heat and cooling, accompanied by the text “Surplus heat or cold – Captured and stored for when it’s needed.” In the centre, a large panel titled “Thermal Energy Storage (TES)” presents three storage technologies. The top section, “Sensible TES,” shows a container with a thermometer and the text “Stores heat in one single phase.” The middle section, “Latent TES,” shows a water droplet and snowflake connected by circular arrows, with the text “Stores heat through phase change.” The bottom section, “Thermochemical TES,” shows two connected coloured circles that separate and reconnect, illustrating a reversible reaction, with the text “Stores heat through reversible reactions.” A large pale arrow-shaped wedge points from the TES panel toward the right side of the figure. On the right, three application areas are shown in separate boxes with icons: industrial processes, buildings, and data centres. The layout conveys that surplus heat or cold can be stored using sensible, latent, or thermochemical TES technologies and later supplied to industrial facilities, buildings, and data centres.

Thermal energy storage is already commercial  

Jorge Salgado Beceiro
Jorge Salgado Beceiro
Research Manager

Burning ammonia cleanly: How timing changes everything 

Author Image
Author Image
2 forfattere

Capturing CO₂ from waste: 14 lessons on turning a hard idea into a real project

Author Image
Author Image
Author Image
3 forfattere

Technology for a better society

  • About this blog
  • How to write a science blog
  • Sign up for our newsletter
  • News from NTNU and SINTEF
  • Facebook
Gå til SINTEF.no
SINTEF logo
© 2026 SINTEF Foundation
Privacy Editorial Press contacts Website by Headspin