International Thermonuclear Experimental Reactor project, France – update

30th April 2021

By: Sheila Barradas

Creamer Media Research Coordinator & Senior Deputy Editor

     

Font size: - +

Name of the Project
International Thermonuclear Experimental Reactor (ITER) project.

Location
Cadarache, north of Marseille, southern France.

Project Owner/s
The ITER Organization, which includes China, the European Union (EU), India, Japan, Korea, Russia and the US.

Project Description
The ITER project is a large-scale scientific experiment that aims to demonstrate the feasibility of fusion as a large-scale and carbon-free source of energy.

The goal of ITER is to operate at 500 MW (for at least 400 seconds continuously), with 50 MW of plasma heating power input. No electricity will be generated at ITER.

The ITER is based on the Tokamak concept of magnetic confinement, in which the plasma is contained in a doughnut-shaped vacuum vessel.

Thirty-nine buildings and technical areas house the ITER Tokamak and its plant systems. The heart of the facility – the Tokamak building –is a seven-storey structure in reinforced concrete that is situated 13 ms below the platform level and 60 m above.

Other auxiliary buildings in the vicinity of the Tokamak building include cooling towers, electrical installations, a control room, facilities for the management of waste, and the cryogenics plant that will provide liquid helium to cool the ITER magnets.

The fuel for the reactor will be a mixture of two isotopes of hydrogen, deuterium and tritium, which will be heated to temperatures higher than 150-million degrees centigrade, forming the hot plasma.

The complex will be 80 m high, 120 m long and 80 m wide. Its footprint will be bigger than that of a football stadium.

It will rely on 493 plinths, equipped with antiseismic bearings. The plinths can sustain the overall weight of the reactor – about 23 000 t – almost three times the weight of the Eiffel Tower.

The complex will host 100 heavy nuclear and confinement doors. The major doors will be 4 m high, 4 m long and 35 cm thick. Each door will be about 40 t and they will be remotely operated. 

Almost 3 000 t of superconducting magnets will be connected by 200 km of superconducting cables, all kept at -269 ºC by the world’s biggest cryogenic plant.

Each building, once structurally complete, is handed over to the ITER Organization for the installation and assembly of equipment.

Potential Job Creation
An estimated 2 000 workers have participated in the construction of the ITER scientific facility.

Capital Expenditure
The project is valued at €23.6-billion. Members of the ITER Organization will bear the cost of the project through its ten-year construction phase and its 20-year operational phase before decommissioning. The project is mainly funded by the European Union (45.6%), with China, India, Japan, Korea, Russia and the US contributing 9.1% each.

Planned Start/End Date
First plasma at the ITER is planned for 2025, with deuterium/tritium fusion experiments starting in 2035.

Latest Developments
The sixth poloidal field (PF6) coil of the ITER has been inserted into the fusion machine's Tokamak pit. PF6 is the bottom-most of the six circular magnets surrounding ITER's vacuum chamber and the first one to be inserted in the Tokamak pit.

The milestone marks the beginning of the assembly of ITER's magnet system, which will control the shape and stability of the ITER plasma.

The PF6 coil was manufactured by the Institute of Plasma Physics of the Chinese Academy of Sciences, a member of the TAC1 consortium. Weighing 350 t, with an external diameter of about 11.2 m, the PF6 coil is the heaviest of ITER's superconducting magnets.

The PF6 coil comprises nine double-pancake-shaped coils and a series of supporting accessories; the PF6 coil winds up a niobium/titanium cable 13.5 km long.

Installation of the PF6 coil was completed by TAC1, a China-France consortium that is led by China National Nuclear Corporation subsidiary China Nuclear Power Engineering.

Key Contracts, Suppliers and Consultants
The VFR consortium, comprising Vinci Construction Grands Projets, Razel-Bec, Dodin Campenon Bernard, Campenon Bernard Sud-Est, GTM Sud, Chantiers Modernes Sud, Ferrovial Agroman and Assystem (final design Phase 1 and prototype testing of the diverter remote handling system); QST and MHI (toroidal field coils); Italian Fincantieri Consortium, comprising Fincantieri, Fincantieri SI, Delta-ti Impianti and Comes (TCC1 assembly contract); and META SNC, comprising France's Ponticelli Freres SAS and Spain's Cobra Instalaciones y Servicios SA and Empresarios Agrupados Internacional (TCC2 assembly contract); NIST (preliminary predevelopment and design of the HCCB TBS).

Contact Details for Project Information
ITER Organization communications, email itercommunications@iter.org.

Edited by Creamer Media Reporter

Comments

The content you are trying to access is only available to subscribers.

If you are already a subscriber, you can Login Here.

If you are not a subscriber, you can subscribe now, by selecting one of the below options.

For more information or assistance, please contact us at subscriptions@creamermedia.co.za.

Option 1 (equivalent of R125 a month):

Receive a weekly copy of Creamer Media's Engineering News & Mining Weekly magazine
(print copy for those in South Africa and e-magazine for those outside of South Africa)
Receive daily email newsletters
Access to full search results
Access archive of magazine back copies
Access to Projects in Progress
Access to ONE Research Report of your choice in PDF format

Option 2 (equivalent of R375 a month):

All benefits from Option 1
PLUS
Access to Creamer Media's Research Channel Africa for ALL Research Reports, in PDF format, on various industrial and mining sectors including Electricity; Water; Energy Transition; Hydrogen; Roads, Rail and Ports; Coal; Gold; Platinum; Battery Metals; etc.

Already a subscriber?

Forgotten your password?

MAGAZINE & ONLINE

SUBSCRIBE

RESEARCH CHANNEL AFRICA

SUBSCRIBE

CORPORATE PACKAGES

CLICK FOR A QUOTATION