|
gptkbp:instanceOf
|
nuclear fusion research facility
|
|
gptkbp:constructionStartYear
|
2010
|
|
gptkbp:designedAccessPorts
|
44
|
|
gptkbp:designedBlanketModules
|
440
|
|
gptkbp:designedCollaboration
|
over 35 countries involved
|
|
gptkbp:designedCommunicationSystems
|
gptkb:fiber
|
|
gptkbp:designedControlRoom
|
centralized operations
|
|
gptkbp:designedControlSystems
|
plasma control, safety, and monitoring
|
|
gptkbp:designedCoolingSystem
|
water-cooled
|
|
gptkbp:designedCryogenicPlantCapacity
|
75 kW at 4.5 K
|
|
gptkbp:designedCryostatDiameter
|
29.3 meters
|
|
gptkbp:designedCryostatHeight
|
29 meters
|
|
gptkbp:designedCryostatWeight
|
3,850 tonnes
|
|
gptkbp:designedDataAcquisition
|
real-time monitoring
|
|
gptkbp:designedDiagnosticsSystems
|
over 50
|
|
gptkbp:designedDivertorCassettes
|
54
|
|
gptkbp:designedEmergencyPower
|
diesel generators
|
|
gptkbp:designedFireProtection
|
automatic suppression systems
|
|
gptkbp:designedFuelingSystem
|
pellet injection
|
|
gptkbp:designedFusionGainQ
|
10
|
|
gptkbp:designedFusionPowerOutput
|
500 MW
|
|
gptkbp:designedHeatingSystems
|
neutral beam injection
radio frequency heating
|
|
gptkbp:designedInputPower
|
50 MW
|
|
gptkbp:designedMagnetSystem
|
superconducting magnets
|
|
gptkbp:designedNeutronFlux
|
1.4 x 10^18 n/s
|
|
gptkbp:designedPersonnel
|
over 2,000 staff and contractors
|
|
gptkbp:designedPlasmaCurrent
|
15 MA
|
|
gptkbp:designedPlasmaVolume
|
840 m³
|
|
gptkbp:designedPowerSupply
|
high-voltage power converters
|
|
gptkbp:designedPulseDuration
|
400-600 seconds
|
|
gptkbp:designedRadiationShielding
|
biological shield
|
|
gptkbp:designedRemoteHandlingSystem
|
robotic arms and transporters
|
|
gptkbp:designedRemoteMaintenance
|
hot cell facility
|
|
gptkbp:designedSafetySystems
|
multiple redundant systems
|
|
gptkbp:designedTrainingFacility
|
on-site training center
|
|
gptkbp:designedTritiumPlant
|
on-site tritium processing
|
|
gptkbp:designedVacuumPumpingSystem
|
cryopumps
|
|
gptkbp:designedVisitorCenter
|
public outreach
|
|
gptkbp:designedWallLoad
|
0.5 MW/m²
|
|
gptkbp:designedWasteManagement
|
radioactive waste handling
|
|
gptkbp:estimatedCost
|
over €20 billion
|
|
gptkbp:expectedDeuterium-TritiumOperation
|
2035
|
|
gptkbp:firstConcretePoured
|
2014
|
|
gptkbp:firstMajorComponentInstalled
|
2020
|
|
gptkbp:firstPlasma
|
2025
|
|
gptkbp:fuelType
|
deuterium
tritium
|
|
gptkbp:fullName
|
gptkb:International_Thermonuclear_Experimental_Reactor
|
|
gptkbp:fundedBy
|
gptkb:treaty
|
|
gptkbp:governingBody
|
gptkb:ITER_Organization
|
|
https://www.w3.org/2000/01/rdf-schema#label
|
ITER
|
|
gptkbp:location
|
gptkb:Saint-Paul-lès-Durance,_France
|
|
gptkbp:magneticFieldStrength
|
5.3 tesla
|
|
gptkbp:numberOfCentralSolenoidModules
|
6
|
|
gptkbp:numberOfPoloidalFieldCoils
|
6
|
|
gptkbp:numberOfToroidalFieldCoils
|
18
|
|
gptkbp:participants
|
gptkb:China
gptkb:European_Union
gptkb:India
gptkb:Japan
gptkb:Russia
gptkb:South_Korea
gptkb:United_States
|
|
gptkbp:projectDirectorGeneral
|
gptkb:Pietro_Barabaschi
|
|
gptkbp:purpose
|
demonstrate feasibility of nuclear fusion as an energy source
|
|
gptkbp:reactorType
|
tokamak
|
|
gptkbp:vacuumVesselDiameter
|
19.4 meters
|
|
gptkbp:vacuumVesselHeight
|
11.4 meters
|
|
gptkbp:vacuumVesselWeight
|
5,200 tonnes
|
|
gptkbp:website
|
https://www.iter.org/
|
|
gptkbp:bfsParent
|
gptkb:Wendelstein_7-X
gptkb:CEA
gptkb:ASDEX_Upgrade
|
|
gptkbp:bfsLayer
|
4
|