gptkbp:instanceOf
|
nuclear fusion research project
|
gptkbp:challenge
|
gptkb:treaty
cost management
remote maintenance
achieving sustained fusion reactions
developing suitable materials for reactor walls
fuel cycle management
handling tritium safely
integration of components from multiple countries
managing high heat loads
plasma control
schedule delays
supply chain complexity
|
gptkbp:constructionStartYear
|
2010
|
gptkbp:coolingSystem
|
cryogenic
|
gptkbp:designedFusionGainQ
|
10
|
gptkbp:designedFusionPowerOutput
|
500 megawatts
|
gptkbp:designedInputPower
|
50 megawatts
|
gptkbp:director
|
gptkb:Pietro_Barabaschi
|
gptkbp:divertorMaterial
|
tungsten
|
gptkbp:estimatedCost
|
over 20 billion euros
|
gptkbp:firstPlasma
|
2025
|
gptkbp:firstWallMaterial
|
beryllium
|
gptkbp:fuelType
|
deuterium
tritium
|
gptkbp:fullName
|
gptkb:International_Thermonuclear_Experimental_Reactor
|
gptkbp:governingBody
|
gptkb:ITER_Organization
|
https://www.w3.org/2000/01/rdf-schema#label
|
ITER project
|
gptkbp:legalStatus
|
gptkb:nonprofit_organization
|
gptkbp:location
|
gptkb:Saint-Paul-lès-Durance,_France
|
gptkbp:magneticFieldStrength
|
5.3 tesla
|
gptkbp:mainDeviceType
|
tokamak
|
gptkbp:mainLanguage
|
English
|
gptkbp:majorRadius
|
2 meters
6.2 meters
|
gptkbp:numberOfCentralSolenoids
|
1
|
gptkbp:numberOfDivertors
|
1
|
gptkbp:numberOfPoloidalFieldCoils
|
6
|
gptkbp:numberOfToroidalFieldCoils
|
18
|
gptkbp:partner
|
gptkb:China
gptkb:European_Union
gptkb:India
gptkb:Japan
gptkb:Russia
gptkb:South_Korea
gptkb:United_States
|
gptkbp:plasmaVolume
|
840 cubic meters
|
gptkbp:purpose
|
demonstrate the feasibility of nuclear fusion as a large-scale and carbon-free source of energy
|
gptkbp:signedBy
|
2006
|
gptkbp:status
|
under construction
|
gptkbp:vacuumVesselWeight
|
5,200 tonnes
|
gptkbp:website
|
https://www.iter.org/
|
gptkbp:bfsParent
|
gptkb:Princeton_Plasma_Physics_Laboratory
gptkb:French_National_Centre_for_Scientific_Research
|
gptkbp:bfsLayer
|
5
|