Skip to content

SINTEF Blog Gå til forsiden

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

ECCSEL opening: To succeed, we must work across borders

Secure, affordable, and clean energy is a key to achieving the UN's sustainable development goals – and indeed to human well-being.

author
Inge R. Gran
Managing Director
Published: 12. Jun 2017 | Last edited: 15. Apr 2025
3 min. reading
Comments (0)

The development and cost reductions of photovoltaics, windmills, and batteries are astonishing, and hold the promise of a clean and renewable energy future. NTNU and SINTEF carry out world-class research in these areas – in addition to 100 years of outstanding hydropower development that we also are celebrating today.

  • Find out more about SINTEF’s expertise on CCS/CCUS.

Picture: We must, however, be realistic about the scale of the efforts needed to mature CCS to a cost-effective technology. This is analogous to the efforts that brought down the cost of photovoltaics and wind power. (Photo: Shutterstock/Statoil)

However, energy supply is primarily based on fossil-fuels. This is by far the major source of climate gases. There are three ways to reduce the emissions: Energy efficiency, switching to non-fossil sources, and carbon capture and storage – CCS.

I am convinced that we need all three.

Furthermore, CCS is the only effective climate technology for production of concrete, steel, and other metals. And CCS is the only feasible technology to provide CO2 negative solutions to remove CO2 from the atmosphere by storing biogenic CO2. Therefore, CCS is critical for achieving the necessary change in time.

I have worked with CCS research since the 90s, and I have never been more convinced that CCS will become one of the most important climate technologies, to move us towards a sustainable, prosperous, and resilient world.

Work across borders and cut costs

We must, however, be realistic about the scale of the efforts needed to mature CCS to a cost-effective technology. This is analogous to the efforts that brought down the cost of photovoltaics and wind power. We need the same scale of efforts to drive CCS down the cost curve.

To succeed, we must work across borders. And that is what ECCSEL is all about: Sharing top quality research infrastructure to find the smartest, safest, cheapest ways to capture, transport, and store CO2.

Made possible with NTNU and SINTEF partnership

I have followed the ECCSEL project since its’ infancy: It was originally developed by SINTEF and proposed by SINTEF and NTNU on behalf of the Norwegian Government in 2007, and put on the official European Strategy Forum on Research Infrastructures (ESFRI) Roadmap in 2008. This project is a brilliant example of the unique NTNU and SINTEF partnership.

ECCSEL also demonstrates how the powerful collaboration between the industry, government, and research communities can solve a grand societal challenge. We need visionary politicians and brave government officers, opportunity seeking industry, and high quality research, for CCS to happen, which is the essence of the triple-helix concept.

Pan-European triple-helix cooperation

The ECCSEL infrastructure is a ground-breaking pan-European triple-helix cooperation. It is promising for the future of Europe, and the world, that such a project can be launched. I am deeply impressed with the visionary bravery – and endurance – demonstrated by the national governments and the European Union in making ECCSEL happen.

What is at the core of the Paris deal and CCS? It is about our children’s future. It is about making our planet a good place to live for the next generations.

This day – the opening of the ECCSEL infrastructure – is a crucial milestone in this endeavour, creating climate technology for a better society.

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