Skip to content

SINTEF Blog Gå til forsiden

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

Impact of alternative flexibility options on offshore grids in the North Sea

Offshore grids in the North Sea
author
Hans Christian Bolstad
Senior Project Manager
Published: 19. Apr 2016 | Last edited: 16. Apr 2025
2 min. reading
Comments (0)

Philipp Härtel from Fraunhofer IWES is visiting us at NOWITECH for 3 months under the IRPWind mobility program.

Offshore grids in the North Sea

The focus of his research is with methods and modelling approaches for assessing the impact of alternative flexibility options on offshore grid designs in the North Sea.

This research involves finding and implementing suitable transmission expansion planning (TEP) models for offshore grid investments. SINTEF Energy Research and NTNU will bring in experience from several national projects, in which offshore grid design concepts and scenarios have been defined and evaluated.

Among the research topics during his guest stay are:

Philipp Härtel, Fraunhofer IWES
Philipp Härtel, Fraunhofer IWES
  • Developing suitable aggregated hydro power models for the application in transmission grid expansion planning/ unit commitment models
  • Comparing cost models and parameters for offshore grid transmission technology options for the application in transmission grid expansion planning models
  • Undertaking model comparison of two market-based offshore grid expansion planning models (i.e. SINTEF’s NetOp model and the TEP model developed at Fraunhofer IWES within the NSON-DE project)
  • Discussing and aligning cost-benefit evaluation methodology for upcoming analyses in the NSON-DE project

We look forward to hearing more about the results from Philipp over the months to come.

Logo IPRWind

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Your email address will not be published.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

How much can energy-efficient voyage planning save? Evidence from 11 months of North Atlantic data

Author Image
Author Image
2 forfattere
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

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