Statements (112)
| Predicate | Object |
|---|---|
| gptkbp:instance_of |
gptkb:railway_station
|
| gptkbp:bfsLayer |
3
|
| gptkbp:bfsParent |
gptkb:weapon
|
| gptkbp:average_temperature |
150 million degrees Celsius
over 150 million degrees Celsius |
| gptkbp:collaborations |
gptkb:legislation
gptkb:China gptkb:India gptkb:Japan gptkb:Monarch gptkb:Russia gptkb:United_States gptkb:battle |
| gptkbp:community |
global
|
| gptkbp:community_engagement |
high
|
| gptkbp:community_involvement |
gptkb:battle
|
| gptkbp:constructed_in |
gptkb:2007
2025 |
| gptkbp:date |
2025
|
| gptkbp:duration |
up to 1,000 seconds
|
| gptkbp:educational_programs |
gptkb:battle
|
| gptkbp:environmental_impact |
low
|
| gptkbp:field |
gptkb:5_Tesla
|
| gptkbp:first_released |
2025
|
| gptkbp:game_components |
gptkb:weapon
|
| gptkbp:goal |
demonstrate the feasibility of nuclear fusion as a large-scale energy source
demonstrate the feasibility of nuclear fusion as a large-scale and carbon-free source of energy |
| https://www.w3.org/2000/01/rdf-schema#label |
ITER
|
| gptkbp:is_a_fusion_of |
2035
deuterium and tritium |
| gptkbp:key |
gptkb:military_base
gptkb:Educational_Institution gptkb:National_Park project management tools simulation tools data acquisition systems risk assessment tools safety systems diagnostic systems superconducting magnets control algorithms heat exchangers cryogenic systems stakeholder engagement tools plasma heating systems environmental monitoring systems vacuum systems modeling software fuel injection systems turbine generators remote monitoring systems safety analysis tools system integration tools divertor regulatory compliance systems quality assurance systems plasma-facing materials public outreach tools first wall fuel cycle systems in-vessel components remote handling systems tritium breeding systems |
| gptkbp:launch_date |
gptkb:2006
gptkb:2010 |
| gptkbp:location |
gptkb:Saint-Paul-lez-Durance,_France
|
| gptkbp:operational_status |
under construction
|
| gptkbp:partnership |
gptkb:television_series
|
| gptkbp:power_output |
50 megawatts
500 megawatts |
| gptkbp:power_reserve |
gptkb:weapon
|
| gptkbp:price |
approximately €20 billion
|
| gptkbp:project |
gptkb:International_Thermonuclear_Experimental_Reactor_Organization
DEMO |
| gptkbp:receives_funding_from |
gptkb:international_collaboration
over €20 billion |
| gptkbp:research |
advancements in fusion technology
|
| gptkbp:research_focus |
gptkb:mythological_figure
materials science engineering plasma physics |
| gptkbp:safety_features |
high standards
|
| gptkbp:size |
approximately 30 meters in diameter
approximately 30 meters in height |
| gptkbp:sustainability |
carbon-free energy
|
| gptkbp:sustainability_initiatives |
reduce greenhouse gas emissions
provide a long-term energy solution |
| gptkbp:technology |
gptkb:military_base
modeling techniques cryogenics engineering practices simulation tools experimental techniques safety systems diagnostic systems superconducting magnets data management systems computational methods project management methodologies waste management systems plasma diagnostics plasma heating vacuum systems magnetic field generation power conversion systems fuel cycle systems remote handling systems heat extraction systems material testing facilities |
| gptkbp:type |
experimental reactor
experimental fusion reactor |
| gptkbp:year |
2025
|