New kiting technique generates energy from ‘calm’ water
University of Groningen researcher Eize Stamhuis is working with the company Sea Current to develop a new method of generating energy from tidal flows with a technology based on underwater kites. The method has significant advantages over wind and sun energy, as it can generate electricity from low-velocity flows of seawater, such as those found along the Dutch coast. What’s more, tidal flows are almost always available and are 100% predictable.
The new technology involved placing large, kite-like systems ten to twelve meters below the water surface, where they move back and forth with the flow of the water. The energy generated is brought onshore using a cable. The technology is particularly well suited to sea water with low-velocity flows, which are in abundant supply around the world, and certainly along the Dutch coast. Other technologies tend to require high-velocity flows, which are much less common.
More information

University of Groningen videos
The weekly online video magazine Unifocus highlights topics related to the University of Groningen in the fields of research and society, student life, teaching, policy and internationalization.
You can find more videos in our video portal.
Last modified: | 24 September 2021 1.31 p.m. |
More news
-
21 August 2025
Upconversion nanoparticles to aid the application of molecular motors
Scientists from Groningen University and the University of Amsterdam have developed upconversion nanoparticles to assist in powering molecular motors.
-
21 August 2025
Follow the Top Dutch Solar Racing team
From August 24 to 31 this year, the student team Top Dutch Solar Racing will participate in the Bridgestone World Solar Challenge. This page will keep you up to date on the latest developments during and around the race.
-
19 August 2025
Bruno Ehrler appointed new director of AMOLF
Honorary professor Bruno Ehrler of the University of Groningen has been appointed as the new director of AMOLF, the NWO Institute for research into functional complex matter.