Skip to content
FusionBenchmark

Performance

Benchmark

149 results. 584 design values, listed apart below.

Achieved

9
Achieved measurements
Device Metric Value Unit Date Source
Joint European Torus 104522 Fusion energy yield 69.26 MJ MJ 2023-10-03 Overview of the third JET deuterium-tritium campaign
JT-60U E39713 nTτ 3.1 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
JT-60U E39713 Ion temperature (peak) 21.5 keV keV 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
JT-60U E39713 Plasma density 4.2 × 10¹⁹ m⁻³ m⁻³ 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
JT-60U E39713 Energy confinement time (τE) 0.344 s s 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
ST40 10009 Ion temperature (peak) 9.6 keV keV 2022 Achievement of ion temperatures in excess of 100 million degrees Kelvin in the compact high-field spherical tokamak ST40
National Ignition Facility N221204 Qtarget 1.5 2022-12-05 Achievement of Target Gain Larger than Unity in an Inertial Fusion Experiment
National Ignition Facility N221204 Fusion energy yield 3.1 MJ MJ 2022-12-05 Achievement of Target Gain Larger than Unity in an Inertial Fusion Experiment
National Ignition Facility N221204 Laser energy on target 2.05 MJ MJ 2022-12-05 Achievement of Target Gain Larger than Unity in an Inertial Fusion Experiment

Claimed

125
Claimed measurements
Device Metric Value Unit Date Source
Experimental Advanced Superconducting Tokamak Plasma duration (sustained) 1,066 s s 2025-01-20 China’s Experimental Advanced Superconducting Tokamak smashes fusion confinement record
JT-60U E39713 Equivalent D-T gain (extrapolated) modelled 0.185 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
JT-60U E40259 Equivalent D-T gain (extrapolated) (sustained) modelled 0.8 2001 Overview of JT-60U Results toward High Integrated Performance in Reactor-Relevant Regime
KSTAR Ion temperature (sustained) 8.6 keV keV 2024-02 Green light on continuous fusion plasma operations technology
KSTAR Plasma duration (sustained) 48 s s 2024-02 Green light on continuous fusion plasma operations technology
T-3 nTτ 2 × 10¹⁶ m⁻³·keV·s m⁻³·keV·s 1969 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
T-3 Ion temperature (peak) 0.3 keV keV 1969 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
T-3 Plasma density 2.25 × 10¹⁹ m⁻³ m⁻³ 1969 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
T-3 Energy confinement time (τE) 0.003 s s 1969 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST nTτ 2.4 × 10¹⁷ m⁻³·keV·s m⁻³·keV·s 1972 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST Ion temperature (peak) 0.4 keV keV 1972 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST Plasma density 6 × 10¹⁹ m⁻³ m⁻³ 1972 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST Energy confinement time (τE) 0.01 s s 1972 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
TFR nTτ 5.2 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 1981 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
TFR Ion temperature (peak) 0.95 keV keV 1981 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
TFR Plasma density 1.61 × 10²⁰ m⁻³ m⁻³ 1981 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
TFR Energy confinement time (τE) 0.034 s s 1981 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
PLT 22149-231 nTτ 3.2 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 1976 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
PLT 22149-231 Ion temperature (peak) 1.54 keV keV 1976 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
PLT 22149-231 Plasma density 5.2 × 10¹⁹ m⁻³ m⁻³ 1976 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
PLT 22149-231 Energy confinement time (τE) 0.04 s s 1976 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator A nTτ 2.4 × 10¹⁹ m⁻³·keV·s m⁻³·keV·s 1978 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator A Ion temperature (peak) 0.8 keV keV 1978 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator A Plasma density 1.5 × 10²¹ m⁻³ m⁻³ 1978 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator A Energy confinement time (τE) 0.02 s s 1978 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator C nTτ 1.2 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 1984 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator C Ion temperature (peak) 1.5 keV keV 1984 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator C Plasma density 1.5 × 10²¹ m⁻³ m⁻³ 1984 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Alcator C Energy confinement time (τE) 0.052 s s 1984 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX 23349-57 nTτ 7.2 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 1988 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX 23349-57 Ion temperature (peak) 0.8 keV keV 1988 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX 23349-57 Energy confinement time (τE) 0.12 s s 1988 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 26087 nTτ 6.1 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 1991-11-02 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 26087 Ion temperature (peak) 18.6 keV keV 1991-11-02 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 26087 Plasma density 4.1 × 10¹⁹ m⁻³ m⁻³ 1991-11-02 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 26087 Energy confinement time (τE) 0.8 s s 1991-11-02 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Tokamak Fusion Test Reactor 83546 nTτ 7.9 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 1995-02-17 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Tokamak Fusion Test Reactor 83546 Ion temperature (peak) 43 keV keV 1995-02-17 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Tokamak Fusion Test Reactor 83546 Plasma density 6.6 × 10¹⁹ m⁻³ m⁻³ 1995-02-17 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Tokamak Fusion Test Reactor 83546 Energy confinement time (τE) 0.28 s s 1995-02-17 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
JT-60U E31872 nTτ 5.6 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
JT-60U E31872 Ion temperature (peak) 16.8 keV keV 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
JT-60U E31872 Plasma density 4.8 × 10¹⁹ m⁻³ m⁻³ 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
JT-60U E31872 Energy confinement time (τE) 0.69 s s 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
DIII-D 87977 nTτ 3.7 × 10²⁰ m⁻³·keV·s m⁻³·keV·s 1997 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
DIII-D 87977 Ion temperature (peak) 18.1 keV keV 1997 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
DIII-D 87977 Plasma density 8.5 × 10¹⁹ m⁻³ m⁻³ 1997 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
DIII-D 87977 Energy confinement time (τE) 0.24 s s 1997 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
START 35533 nTτ 6.1 × 10¹⁶ m⁻³·keV·s m⁻³·keV·s 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
START 35533 Ion temperature (peak) 0.2 keV keV 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
START 35533 Energy confinement time (τE) 0.003 s s 1998 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
MAST 14626 nTτ 4.5 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2006 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
MAST 14626 Ion temperature (peak) 3 keV keV 2006 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
MAST 14626 Plasma density 3 × 10¹⁹ m⁻³ m⁻³ 2006 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
MAST 14626 Energy confinement time (τE) 0.05 s s 2006 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
NSTX 129041 nTτ 4.8 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2009 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
NSTX 129041 Ion temperature (peak) 1.2 keV keV 2009 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
NSTX 129041 Plasma density 5 × 10¹⁹ m⁻³ m⁻³ 2009 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
NSTX 129041 Energy confinement time (τE) 0.08 s s 2009 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Experimental Advanced Superconducting Tokamak 56933 nTτ 9.6 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2015 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Experimental Advanced Superconducting Tokamak 56933 Ion temperature (peak) 2.1 keV keV 2015 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Experimental Advanced Superconducting Tokamak 56933 Plasma density 8.5 × 10¹⁹ m⁻³ m⁻³ 2015 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Experimental Advanced Superconducting Tokamak 56933 Energy confinement time (τE) 0.054 s s 2015 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
KSTAR 7081 nTτ 9.6 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2014 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
KSTAR 7081 Ion temperature (peak) 2 keV keV 2014 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
KSTAR 7081 Energy confinement time (τE) 0.1 s s 2014 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
C-Mod 1160930033 nTτ 7.4 × 10¹⁹ m⁻³·keV·s m⁻³·keV·s 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
C-Mod 1160930033 Ion temperature (peak) 2.5 keV keV 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
C-Mod 1160930033 Plasma density 5.5 × 10²⁰ m⁻³ m⁻³ 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
C-Mod 1160930033 Energy confinement time (τE) 0.054 s s 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX UPGRADE 32305 nTτ 2.2 × 10¹⁹ m⁻³·keV·s m⁻³·keV·s 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX UPGRADE 32305 Ion temperature (peak) 8 keV keV 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX UPGRADE 32305 Plasma density 5 × 10¹⁹ m⁻³ m⁻³ 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ASDEX UPGRADE 32305 Energy confinement time (τE) 0.056 s s 2016 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
GLOBUS-M2 37873 nTτ 1.4 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2019 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
GLOBUS-M2 37873 Ion temperature (peak) 1.2 keV keV 2019 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
GLOBUS-M2 37873 Energy confinement time (τE) 0.01 s s 2019 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST40 10009 nTτ 6.3 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2022 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST40 10009 Plasma density 5.5 × 10¹⁹ m⁻³ m⁻³ 2022 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ST40 10009 Energy confinement time (τE) 0.012 s s 2022 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 42976 Qplasma 0.63 1997-10-31 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Tokamak Fusion Test Reactor 76778 Qplasma 0.28 1994-05-27 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
National Ignition Facility N250406 Qtarget 4.13 2025-04-07 Achieving Fusion Ignition | National Ignition Facility & Photon Science
OMEGA 103952 Qtarget 0.03 2022-04-14 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
National Ignition Facility N221204 Wall-plug gain 0.0078 2022-12-05 Power Conditioning System
Tokamak Fusion Test Reactor Ion temperature (peak) 5.1 × 10⁸ K K — Tokamak Fusion Test Reactor
National Ignition Facility N230729 Qtarget 1.89 2023-07-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N230729 Fusion energy yield 3.88 MJ MJ 2023-07-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N230729 Laser energy on target 2.05 MJ MJ 2023-07-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231007 Qtarget 1.26 2023-10-08 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231007 Fusion energy yield 2.4 MJ MJ 2023-10-08 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231007 Laser energy on target 1.9 MJ MJ 2023-10-08 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231029 Qtarget 1.55 2023-10-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231029 Fusion energy yield 3.4 MJ MJ 2023-10-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N231029 Laser energy on target 2.2 MJ MJ 2023-10-30 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N240210 Qtarget 2.36 2024-02-12 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N240210 Fusion energy yield 5.2 MJ MJ 2024-02-12 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N240210 Laser energy on target 2.2 MJ MJ 2024-02-12 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N241117 Qtarget 1.86 2024-11-18 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N241117 Fusion energy yield 4.1 MJ MJ 2024-11-18 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N241117 Laser energy on target 2.2 MJ MJ 2024-11-18 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250222 Qtarget 2.44 2025-02-23 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250222 Fusion energy yield 5 MJ MJ 2025-02-23 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250222 Laser energy on target 2.05 MJ MJ 2025-02-23 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250406 Fusion energy yield 8.6 MJ MJ 2025-04-07 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250406 Laser energy on target 2.08 MJ MJ 2025-04-07 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility N250622 Fusion energy yield 2.4 MJ MJ 2025-06-22 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility Qtarget 1.74 2025-10-01 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility Fusion energy yield 3.5 MJ MJ 2025-10-01 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility Laser energy on target 2.065 MJ MJ 2025-10-01 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility Qtarget 3.8 2026-06-20 Achieving Fusion Ignition | National Ignition Facility & Photon Science
National Ignition Facility Fusion energy yield 7.9 MJ MJ 2026-06-20 Achieving Fusion Ignition | National Ignition Facility & Photon Science
Joint European Torus 99971 Qplasma (average) 0.33 2021-12-21 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
Joint European Torus 104522 Qplasma (average) 0.37 2023-10-03 Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
WEST Plasma duration (sustained) 1,337 s s 2025-02-12 Nuclear fusion: WEST beats the world record for plasma duration!
ST40 nTτ (peak) 6 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2022 Achievement of ion temperatures in excess of 100 million degrees Kelvin in the compact high-field spherical tokamak ST40
ST40 nTτ 8 × 10¹⁸ m⁻³·keV·s m⁻³·keV·s 2025 Knockout results from Tokamak Energy’s record-breaking ST40 ends 2025 on a high
ST40 Plasma current (peak) 1 MA MA 2025 Knockout results from Tokamak Energy’s record-breaking ST40 ends 2025 on a high
FuZE Electron temperature (peak) — keV keV 2022 Zap Energy achieves 37-million-degree temperatures in a compact device
Wendelstein 7-X Plasma duration (sustained) 360 s s 2025-05-22 Wendelstein 7-X sets new performance records in fusion research [UPDATE]
Wendelstein 7-X nTτ 6 × 10²⁶ K·m⁻³·s K·m⁻³·s 2017 Wendelstein 7-X attains world record for fusion product
Wendelstein 7-X Ion temperature 4 × 10⁷ K K 2017 Wendelstein 7-X attains world record for fusion product
Wendelstein 7-X Plasma density 8 × 10¹⁹ m⁻³ m⁻³ 2017 Wendelstein 7-X attains world record for fusion product
Wendelstein 7-X Plasma duration 26 s s 2017 Wendelstein 7-X attains world record for fusion product
Wendelstein 7-X Plasma duration (sustained) 480 s s 2023-02-15 Wendelstein 7-X | Max-Planck-Institut für Plasmaphysik

Planned

10
Planned measurements
Device Metric Value Unit Date Source
ITER Qplasma 10 — The machine
SPARC nTτ 6.2 × 10²¹ m⁻³·keV·s m⁻³·keV·s — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
SPARC Ion temperature (peak) 20 keV keV — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
SPARC Plasma density 4 × 10²⁰ m⁻³ m⁻³ — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
SPARC Energy confinement time (τE) 0.77 s s — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ITER nTτ 7.4 × 10²¹ m⁻³·keV·s m⁻³·keV·s — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ITER Ion temperature (peak) 20 keV keV — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ITER Plasma density 10²⁰ m⁻³ m⁻³ — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
ITER Energy confinement time (τE) 3.7 s s — Continuing progress toward fusion energy breakeven and gain as measured against the Lawson criteria
SPARC Qplasma 2 — SPARC: Proving commercial fusion energy is possible | Commonwealth Fusion Systems

Disputed, superseded and retracted

5
Disputed, superseded and retracted measurements
Device Metric Value Unit Status Date Source
JT-60U nTτ 1.5 × 10²¹ m⁻³·keV·s m⁻³·keV·s disputed 1996-08 JT-60U Experimental Report No. 36: World Highest Fusion Triple Product
KSTAR Plasma duration (sustained) 102 s s disputed 2026-06 KSTAR sustains 100-million-degree plasma for 102 seconds in tungsten divertor campaign
Experimental Advanced Superconducting Tokamak Plasma duration (sustained) 403 s s superseded 2023 Chinese "Artificial Sun" Sets New Record in Milestone Step Toward Fusion Power Generation
Joint European Torus 99971 Fusion energy yield 59 MJ MJ superseded 2021-12-21 JET Tokamak’s Latest Fusion Energy Record Shows Mastery of Fusion Processes
ST40 10009 Ion temperature (peak) 8.6 keV keV superseded 2022 Achievement of ion temperatures in excess of 100 million degrees Kelvin in the compact high-field spherical tokamak ST40

Design values

584
Design values measurements
Device Metric Value Unit Status Date Source
ADITYA-U R0 0.75 m m claimed — World Survey of Fusion Devices 2022
ADITYA-U a 0.25 m m claimed — World Survey of Fusion Devices 2022
ADITYA-U Plasma current 0.25 MA MA claimed — World Survey of Fusion Devices 2022
ADITYA-U On-axis magnetic field 1.5 T T claimed — World Survey of Fusion Devices 2022
ADITYA-U Plasma duration (nominal) 0.4 s s claimed — World Survey of Fusion Devices 2022
ALVAND R0 0.456 m m claimed — World Survey of Fusion Devices 2022
ALVAND a 0.126 m m claimed — World Survey of Fusion Devices 2022
ALVAND Plasma current 0.035 MA MA claimed — World Survey of Fusion Devices 2022
ALVAND On-axis magnetic field 0.8 T T claimed — World Survey of Fusion Devices 2022
ALVAND Plasma duration (nominal) 0.009 s s claimed — World Survey of Fusion Devices 2022
ASDEX UPGRADE R0 1.65 m m claimed — World Survey of Fusion Devices 2022
ASDEX UPGRADE a 0.5 m m claimed — World Survey of Fusion Devices 2022
ASDEX UPGRADE Plasma current 1.4 MA MA claimed — World Survey of Fusion Devices 2022
ASDEX UPGRADE On-axis magnetic field 3.2 T T claimed — World Survey of Fusion Devices 2022
ASDEX UPGRADE Plasma duration (nominal) 10 s s claimed — World Survey of Fusion Devices 2022
CTH R0 0.75 m m claimed — World Survey of Fusion Devices 2022
CTH a 0.29 m m claimed — World Survey of Fusion Devices 2022
CTH Plasma current 0.08 MA MA claimed — World Survey of Fusion Devices 2022
CTH On-axis magnetic field 0.7 T T claimed — World Survey of Fusion Devices 2022
DAMAVAND R0 0.362 m m claimed — World Survey of Fusion Devices 2022
DAMAVAND a 0.077 m m claimed — World Survey of Fusion Devices 2022
DAMAVAND Plasma current 0.03 MA MA claimed — World Survey of Fusion Devices 2022
DAMAVAND On-axis magnetic field 0.9 T T claimed — World Survey of Fusion Devices 2022
DAMAVAND Plasma duration (nominal) 0.02 s s claimed — World Survey of Fusion Devices 2022
DIII-D R0 1.7 m m claimed — World Survey of Fusion Devices 2022
DIII-D a 0.6 m m claimed — World Survey of Fusion Devices 2022
DIII-D Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
DIII-D On-axis magnetic field 2.17 T T claimed — World Survey of Fusion Devices 2022
DIII-D Plasma duration (nominal) 10 s s claimed — World Survey of Fusion Devices 2022
Experimental Advanced Superconducting Tokamak R0 1.7 m m claimed — World Survey of Fusion Devices 2022
Experimental Advanced Superconducting Tokamak a 0.4 m m claimed — World Survey of Fusion Devices 2022
Experimental Advanced Superconducting Tokamak Plasma current 1 MA MA claimed — World Survey of Fusion Devices 2022
Experimental Advanced Superconducting Tokamak On-axis magnetic field 3.5 T T claimed — World Survey of Fusion Devices 2022
Experimental Advanced Superconducting Tokamak Plasma duration (nominal) 1,000 s s claimed — World Survey of Fusion Devices 2022
EGYPTOR R0 0.3 m m claimed — World Survey of Fusion Devices 2022
EGYPTOR a 0.1 m m claimed — World Survey of Fusion Devices 2022
EGYPTOR Plasma current 0.05 MA MA claimed — World Survey of Fusion Devices 2022
EGYPTOR On-axis magnetic field 1.2 T T claimed — World Survey of Fusion Devices 2022
EGYPTOR Plasma duration (nominal) 0.045 s s claimed — World Survey of Fusion Devices 2022
ETE R0 0.3 m m claimed — World Survey of Fusion Devices 2022
ETE a 0.2 m m claimed — World Survey of Fusion Devices 2022
ETE Plasma current 0.045 MA MA claimed — World Survey of Fusion Devices 2022
ETE On-axis magnetic field 0.4 T T claimed — World Survey of Fusion Devices 2022
ETE Plasma duration (nominal) 0.012 s s claimed — World Survey of Fusion Devices 2022
EXL-50 R0 0.58 m m claimed — World Survey of Fusion Devices 2022
EXL-50 a 0.41 m m claimed — World Survey of Fusion Devices 2022
EXL-50 Plasma current 0.5 MA MA claimed — World Survey of Fusion Devices 2022
EXL-50 On-axis magnetic field 0.45 T T claimed — World Survey of Fusion Devices 2022
EXL-50 Plasma duration (nominal) 5 s s claimed — World Survey of Fusion Devices 2022
FT-2 R0 0.55 m m claimed — World Survey of Fusion Devices 2022
FT-2 a 0.087 m m claimed — World Survey of Fusion Devices 2022
FT-2 Plasma current 0.04 MA MA claimed — World Survey of Fusion Devices 2022
FT-2 On-axis magnetic field 2.3 T T claimed — World Survey of Fusion Devices 2022
FTU R0 0.935 m m claimed — World Survey of Fusion Devices 2022
FTU a 0.3 m m claimed — World Survey of Fusion Devices 2022
FTU Plasma current 1.4 MA MA claimed — World Survey of Fusion Devices 2022
FTU On-axis magnetic field 8 T T claimed — World Survey of Fusion Devices 2022
FTU Plasma duration (nominal) 1.5 s s claimed — World Survey of Fusion Devices 2022
GLAST-III R0 0.2 m m claimed — World Survey of Fusion Devices 2022
GLAST-III a 0.1 m m claimed — World Survey of Fusion Devices 2022
GLAST-III Plasma current 0.002 MA MA claimed — World Survey of Fusion Devices 2022
GLAST-III On-axis magnetic field 0.0875 T T claimed — World Survey of Fusion Devices 2022
GLAST-III Plasma duration (nominal) 0.0012 s s claimed — World Survey of Fusion Devices 2022
GLOBUS-M2 R0 0.36 m m claimed — World Survey of Fusion Devices 2022
GLOBUS-M2 a 0.24 m m claimed — World Survey of Fusion Devices 2022
GLOBUS-M2 Plasma current 0.5 MA MA claimed — World Survey of Fusion Devices 2022
GLOBUS-M2 On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
GOLEM R0 0.4 m m claimed — World Survey of Fusion Devices 2022
GOLEM a 0.085 m m claimed — World Survey of Fusion Devices 2022
GOLEM Plasma current 0.008 MA MA claimed — World Survey of Fusion Devices 2022
GOLEM On-axis magnetic field 0.8 T T claimed — World Survey of Fusion Devices 2022
GOLEM Plasma duration (nominal) 0.025 s s claimed — World Survey of Fusion Devices 2022
GUTTA R0 0.16 m m claimed — World Survey of Fusion Devices 2022
GUTTA a 0.08 m m claimed — World Survey of Fusion Devices 2022
GUTTA Plasma current 0.18 MA MA claimed — World Survey of Fusion Devices 2022
GUTTA On-axis magnetic field 1.5 T T claimed — World Survey of Fusion Devices 2022
HBT-EP R0 0.94 m m claimed — World Survey of Fusion Devices 2022
HBT-EP a 0.2 m m claimed — World Survey of Fusion Devices 2022
HBT-EP Plasma current 0.03 MA MA claimed — World Survey of Fusion Devices 2022
HBT-EP On-axis magnetic field 0.3 T T claimed — World Survey of Fusion Devices 2022
HELIOTRON J R0 1.2 m m claimed — World Survey of Fusion Devices 2022
HELIOTRON J a 0.17 m m claimed — World Survey of Fusion Devices 2022
HELIOTRON J On-axis magnetic field 1.5 T T claimed — World Survey of Fusion Devices 2022
HIDRA R0 0.72 m m claimed — World Survey of Fusion Devices 2022
HIDRA a 0.19 m m claimed — World Survey of Fusion Devices 2022
HIDRA On-axis magnetic field 0.5 T T claimed — World Survey of Fusion Devices 2022
HIST R0 0.3 m m claimed — World Survey of Fusion Devices 2022
HIST a 0.24 m m claimed — World Survey of Fusion Devices 2022
HIST Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
HIST On-axis magnetic field 0.2 T T claimed — World Survey of Fusion Devices 2022
HL-2A R0 1.65 m m claimed — World Survey of Fusion Devices 2022
HL-2A a 0.4 m m claimed — World Survey of Fusion Devices 2022
HL-2A Plasma current 0.48 MA MA claimed — World Survey of Fusion Devices 2022
HL-2A On-axis magnetic field 2.8 T T claimed — World Survey of Fusion Devices 2022
HL-2A Plasma duration (nominal) 5 s s claimed — World Survey of Fusion Devices 2022
HL-2M R0 1.78 m m claimed — World Survey of Fusion Devices 2022
HL-2M a 0.65 m m claimed — World Survey of Fusion Devices 2022
HL-2M Plasma current 3 MA MA claimed — World Survey of Fusion Devices 2022
HL-2M On-axis magnetic field 3 T T claimed — World Survey of Fusion Devices 2022
HL-2M Plasma duration (nominal) 10 s s claimed — World Survey of Fusion Devices 2022
HSX R0 1.2 m m claimed — World Survey of Fusion Devices 2022
HSX a 0.15 m m claimed — World Survey of Fusion Devices 2022
HSX On-axis magnetic field 1.25 T T claimed — World Survey of Fusion Devices 2022
HYBTOK-II R0 0.4 m m claimed — World Survey of Fusion Devices 2022
HYBTOK-II a 0.128 m m claimed — World Survey of Fusion Devices 2022
HYBTOK-II Plasma current 0.015 MA MA claimed — World Survey of Fusion Devices 2022
HYBTOK-II On-axis magnetic field 0.5 T T claimed — World Survey of Fusion Devices 2022
HYBTOK-II Plasma duration (nominal) 0.01 s s claimed — World Survey of Fusion Devices 2022
IR-T1 R0 0.45 m m claimed — World Survey of Fusion Devices 2022
IR-T1 a 0.125 m m claimed — World Survey of Fusion Devices 2022
IR-T1 Plasma current 0.04 MA MA claimed — World Survey of Fusion Devices 2022
IR-T1 On-axis magnetic field 0.9 T T claimed — World Survey of Fusion Devices 2022
IR-T1 Plasma duration (nominal) 0.03 s s claimed — World Survey of Fusion Devices 2022
ISTTOK R0 0.46 m m claimed — World Survey of Fusion Devices 2022
ISTTOK a 0.085 m m claimed — World Survey of Fusion Devices 2022
ISTTOK Plasma current 0.007 MA MA claimed — World Survey of Fusion Devices 2022
ISTTOK On-axis magnetic field 0.8 T T claimed — World Survey of Fusion Devices 2022
J-TEXT R0 1.05 m m claimed — World Survey of Fusion Devices 2022
J-TEXT a 0.29 m m claimed — World Survey of Fusion Devices 2022
J-TEXT Plasma current 0.2 MA MA claimed — World Survey of Fusion Devices 2022
J-TEXT On-axis magnetic field 2 T T claimed — World Survey of Fusion Devices 2022
J-TEXT Plasma duration (nominal) 0.8 s s claimed — World Survey of Fusion Devices 2022
Joint European Torus R0 2.96 m m claimed — World Survey of Fusion Devices 2022
Joint European Torus a 1.25 m m claimed — World Survey of Fusion Devices 2022
Joint European Torus Plasma current 5 MA MA claimed — World Survey of Fusion Devices 2022
Joint European Torus On-axis magnetic field 3.4 T T claimed — World Survey of Fusion Devices 2022
Joint European Torus Plasma duration (nominal) 60 s s claimed — World Survey of Fusion Devices 2022
JT-60SA R0 2.96 m m claimed — World Survey of Fusion Devices 2022
JT-60SA a 1.18 m m claimed — World Survey of Fusion Devices 2022
JT-60SA Plasma current 5.5 MA MA claimed — World Survey of Fusion Devices 2022
JT-60SA On-axis magnetic field 2.25 T T claimed — World Survey of Fusion Devices 2022
JT-60SA Plasma duration (nominal) 100 s s claimed — World Survey of Fusion Devices 2022
KSTAR R0 1.8 m m claimed — World Survey of Fusion Devices 2022
KSTAR a 0.5 m m claimed — World Survey of Fusion Devices 2022
KSTAR Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
KSTAR On-axis magnetic field 3.5 T T claimed — World Survey of Fusion Devices 2022
KSTAR Plasma duration (nominal) 300 s s claimed — World Survey of Fusion Devices 2022
KTM R0 0.9 m m claimed — World Survey of Fusion Devices 2022
KTM a 0.45 m m claimed — World Survey of Fusion Devices 2022
KTM Plasma current 0.75 MA MA claimed — World Survey of Fusion Devices 2022
KTM On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
KTM Plasma duration (nominal) 5 s s claimed — World Survey of Fusion Devices 2022
KTX R0 1.4 m m claimed — World Survey of Fusion Devices 2022
KTX a 0.4 m m claimed — World Survey of Fusion Devices 2022
KTX Plasma current 1 MA MA claimed — World Survey of Fusion Devices 2022
Large Helical Device R0 3.9 m m claimed — World Survey of Fusion Devices 2022
Large Helical Device a 0.65 m m claimed — World Survey of Fusion Devices 2022
Large Helical Device On-axis magnetic field 4 T T claimed — World Survey of Fusion Devices 2022
LIBTOR R0 0.53 m m claimed — World Survey of Fusion Devices 2022
LIBTOR a 0.115 m m claimed — World Survey of Fusion Devices 2022
LIBTOR Plasma current 0.12 MA MA claimed — World Survey of Fusion Devices 2022
LIBTOR On-axis magnetic field 4 T T claimed — World Survey of Fusion Devices 2022
MAST-U R0 0.85 m m claimed — World Survey of Fusion Devices 2022
MAST-U a 0.65 m m claimed — World Survey of Fusion Devices 2022
MAST-U Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
MAST-U On-axis magnetic field 0.52 T T claimed — World Survey of Fusion Devices 2022
MAST-U Plasma duration (nominal) 5 s s claimed — World Survey of Fusion Devices 2022
MEDUSA-CR R0 0.14 m m claimed — World Survey of Fusion Devices 2022
MEDUSA-CR a 0.1 m m claimed — World Survey of Fusion Devices 2022
MEDUSA-CR Plasma current 0.04 MA MA claimed — World Survey of Fusion Devices 2022
MEDUSA-CR On-axis magnetic field 0.5 T T claimed — World Survey of Fusion Devices 2022
MEDUSA-CR Plasma duration (nominal) 0.003 s s claimed — World Survey of Fusion Devices 2022
MT-1 R0 0.25 m m claimed — World Survey of Fusion Devices 2022
MT-1 a 0.1 m m claimed — World Survey of Fusion Devices 2022
MT-1 Plasma current 0.015 MA MA claimed — World Survey of Fusion Devices 2022
MT-1 On-axis magnetic field 1.2 T T claimed — World Survey of Fusion Devices 2022
MT-1 Plasma duration (nominal) 0.008 s s claimed — World Survey of Fusion Devices 2022
NORTH R0 0.25 m m claimed — World Survey of Fusion Devices 2022
NORTH On-axis magnetic field 0.3 T T claimed — World Survey of Fusion Devices 2022
NOVA-FURG R0 0.3 m m claimed — World Survey of Fusion Devices 2022
NOVA-FURG a 0.06 m m claimed — World Survey of Fusion Devices 2022
NOVA-FURG Plasma current 0.01 MA MA claimed — World Survey of Fusion Devices 2022
NOVA-FURG On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
NOVA-FURG Plasma duration (nominal) 0.015 s s claimed — World Survey of Fusion Devices 2022
NSTX-U R0 0.934 m m claimed — World Survey of Fusion Devices 2022
NSTX-U a 0.68 m m claimed — World Survey of Fusion Devices 2022
NSTX-U Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
NSTX-U On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
NSTX-U Plasma duration (nominal) 5 s s claimed — World Survey of Fusion Devices 2022
PEGASUS-III R0 0.45 m m claimed — World Survey of Fusion Devices 2022
PEGASUS-III a 0.37 m m claimed — World Survey of Fusion Devices 2022
PEGASUS-III Plasma current 1 MA MA claimed — World Survey of Fusion Devices 2022
PEGASUS-III On-axis magnetic field 0.58 T T claimed — World Survey of Fusion Devices 2022
PHIX R0 0.33 m m claimed — World Survey of Fusion Devices 2022
PHIX a 0.09 m m claimed — World Survey of Fusion Devices 2022
PHIX Plasma current 0.005 MA MA claimed — World Survey of Fusion Devices 2022
PHIX On-axis magnetic field 0.3 T T claimed — World Survey of Fusion Devices 2022
PHIX Plasma duration (nominal) 0.02 s s claimed — World Survey of Fusion Devices 2022
AP1000 reactor design · Westinghouse Electric Company Net electrical capacity (nominal) 1,110 MW MW claimed — AP1000 PWR overview
AP1000 reactor design · Westinghouse Electric Company Thermal capacity (rated) 3,415 MW MW claimed — AP1000 PWR overview
Advanced Boiling Water Reactor (ABWR) reactor design · GE Vernova Hitachi Nuclear Energy Net electrical capacity (rated) — MW MW claimed — BWRX-300 small modular reactor
IPHWR-700 reactor design · NPCIL Net electrical capacity (rated) 700 MW MW claimed — NPCIL home page (press releases list)
KLT-40S reactor design · OKBM Afrikantov Net electrical capacity (rated) 35 MW MW claimed — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "KLT-40S (JSC "Afrikantov OKBM")"
KLT-40S reactor design · OKBM Afrikantov Thermal capacity (rated) 150 MW MW claimed — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "KLT-40S (JSC "Afrikantov OKBM")"
QUEST R0 0.64 m m claimed — World Survey of Fusion Devices 2022
QUEST a 0.4 m m claimed — World Survey of Fusion Devices 2022
QUEST Plasma current 0.3 MA MA claimed — World Survey of Fusion Devices 2022
QUEST On-axis magnetic field 0.25 T T claimed — World Survey of Fusion Devices 2022
RELAX R0 0.5 m m claimed — World Survey of Fusion Devices 2022
RELAX a 0.25 m m claimed — World Survey of Fusion Devices 2022
RFX R0 2 m m claimed — World Survey of Fusion Devices 2022
RFX a 0.45 m m claimed — World Survey of Fusion Devices 2022
RFX Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
SCR-1 R0 0.238 m m claimed — World Survey of Fusion Devices 2022
SCR-1 a 0.042 m m claimed — World Survey of Fusion Devices 2022
SCR-1 On-axis magnetic field 0.0878 T T claimed — World Survey of Fusion Devices 2022
SMART R0 0.4 m m claimed — World Survey of Fusion Devices 2022
SMART a 0.25 m m claimed — World Survey of Fusion Devices 2022
SST-1 R0 1.1 m m claimed — World Survey of Fusion Devices 2022
SST-1 a 0.2 m m claimed — World Survey of Fusion Devices 2022
SST-1 Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
SST-1 On-axis magnetic field 1.5 T T claimed — World Survey of Fusion Devices 2022
SST-1 Plasma duration (nominal) 0.65 s s claimed — World Survey of Fusion Devices 2022
ST40 R0 0.5 m m claimed — World Survey of Fusion Devices 2022
ST40 a 0.3 m m claimed — World Survey of Fusion Devices 2022
ST40 Plasma current 2 MA MA claimed — World Survey of Fusion Devices 2022
ST40 On-axis magnetic field 3 T T claimed — World Survey of Fusion Devices 2022
ST40 Plasma duration (nominal) 1 s s claimed — World Survey of Fusion Devices 2022
STOR-M R0 0.46 m m claimed — World Survey of Fusion Devices 2022
STOR-M a 0.125 m m claimed — World Survey of Fusion Devices 2022
STOR-M Plasma current 0.06 MA MA claimed — World Survey of Fusion Devices 2022
STOR-M On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
SUNIST-1 R0 0.3 m m claimed — World Survey of Fusion Devices 2022
SUNIST-1 a 0.23 m m claimed — World Survey of Fusion Devices 2022
SUNIST-1 Plasma current 0.05 MA MA claimed — World Survey of Fusion Devices 2022
SUNIST-1 On-axis magnetic field 0.15 T T claimed — World Survey of Fusion Devices 2022
SUNIST-1 Plasma duration (nominal) 0.001 s s claimed — World Survey of Fusion Devices 2022
T-11M R0 0.7 m m claimed — World Survey of Fusion Devices 2022
T-11M a 0.2 m m claimed — World Survey of Fusion Devices 2022
T-11M Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
T-11M On-axis magnetic field 1 T T claimed — World Survey of Fusion Devices 2022
T-11M Plasma duration (nominal) 0.25 s s claimed — World Survey of Fusion Devices 2022
T-15MD R0 2.43 m m claimed — World Survey of Fusion Devices 2022
T-15MD a 0.42 m m claimed — World Survey of Fusion Devices 2022
T-15MD Plasma current 1 MA MA claimed — World Survey of Fusion Devices 2022
T-15MD On-axis magnetic field 3.5 T T claimed — World Survey of Fusion Devices 2022
T-15MD Plasma duration (nominal) 30 s s claimed — World Survey of Fusion Devices 2022
TCABR R0 0.61 m m claimed — World Survey of Fusion Devices 2022
TCABR a 0.18 m m claimed — World Survey of Fusion Devices 2022
TCABR Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
TCABR On-axis magnetic field 1.07 T T claimed — World Survey of Fusion Devices 2022
TCABR Plasma duration (nominal) 0.1 s s claimed — World Survey of Fusion Devices 2022
TCV R0 0.89 m m claimed — World Survey of Fusion Devices 2022
TCV a 0.25 m m claimed — World Survey of Fusion Devices 2022
TCV Plasma current 1.2 MA MA claimed — World Survey of Fusion Devices 2022
TCV On-axis magnetic field 1.54 T T claimed — World Survey of Fusion Devices 2022
TJ-II R0 1.5 m m claimed — World Survey of Fusion Devices 2022
TJ-II a 0.22 m m claimed — World Survey of Fusion Devices 2022
TJ-II On-axis magnetic field 0.95 T T claimed — World Survey of Fusion Devices 2022
TJ-K R0 0.6 m m claimed — World Survey of Fusion Devices 2022
TJ-K a 0.1 m m claimed — World Survey of Fusion Devices 2022
TJ-K On-axis magnetic field 0.07 T T claimed — World Survey of Fusion Devices 2022
TOKASTAR-2 R0 0.1 m m claimed — World Survey of Fusion Devices 2022
TOKASTAR-2 a 0.04 m m claimed — World Survey of Fusion Devices 2022
TOKASTAR-2 Plasma current 0.025 MA MA claimed — World Survey of Fusion Devices 2022
TOKASTAR-2 On-axis magnetic field 0.1 T T claimed — World Survey of Fusion Devices 2022
TORIX R0 0.6 m m claimed — World Survey of Fusion Devices 2022
TORIX a 0.05 m m claimed — World Survey of Fusion Devices 2022
TORIX Plasma duration (nominal) 0.1 s s claimed — World Survey of Fusion Devices 2022
TORPEX R0 1 m m claimed — World Survey of Fusion Devices 2022
TORPEX a 0.2 m m claimed — World Survey of Fusion Devices 2022
TORPEX Plasma current 0.001 MA MA claimed — World Survey of Fusion Devices 2022
TRENTA On-axis magnetic field 10 T T claimed — World Survey of Fusion Devices 2022
TST-2 R0 0.36 m m claimed — World Survey of Fusion Devices 2022
TST-2 a 0.23 m m claimed — World Survey of Fusion Devices 2022
TST-2 Plasma current 0.2 MA MA claimed — World Survey of Fusion Devices 2022
TST-2 On-axis magnetic field 0.3 T T claimed — World Survey of Fusion Devices 2022
TST-2 Plasma duration (nominal) 0.05 s s claimed — World Survey of Fusion Devices 2022
TUMAN-3M R0 0.53 m m claimed — World Survey of Fusion Devices 2022
TUMAN-3M a 0.22 m m claimed — World Survey of Fusion Devices 2022
TUMAN-3M Plasma current 0.18 MA MA claimed — World Survey of Fusion Devices 2022
TUMAN-3M On-axis magnetic field 1.2 T T claimed — World Survey of Fusion Devices 2022
TUMAN-3M Plasma duration (nominal) 0.08 s s claimed — World Survey of Fusion Devices 2022
URAGAN-2M R0 1.7 m m claimed — World Survey of Fusion Devices 2022
URAGAN-2M a 0.22 m m claimed — World Survey of Fusion Devices 2022
URAGAN-2M On-axis magnetic field 2.4 T T claimed — World Survey of Fusion Devices 2022
URAGAN-3M R0 1 m m claimed — World Survey of Fusion Devices 2022
URAGAN-3M a 0.12 m m claimed — World Survey of Fusion Devices 2022
URAGAN-3M On-axis magnetic field 0.7 T T claimed — World Survey of Fusion Devices 2022
UTST R0 0.35 m m claimed — World Survey of Fusion Devices 2022
UTST a 0.2 m m claimed — World Survey of Fusion Devices 2022
UTST Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
UTST On-axis magnetic field 0.25 T T claimed — World Survey of Fusion Devices 2022
UTST Plasma duration (nominal) 0.01 s s claimed — World Survey of Fusion Devices 2022
VEST R0 0.45 m m claimed — World Survey of Fusion Devices 2022
VEST a 0.33 m m claimed — World Survey of Fusion Devices 2022
VEST Plasma current 0.1 MA MA claimed — World Survey of Fusion Devices 2022
VEST On-axis magnetic field 0.1 T T claimed — World Survey of Fusion Devices 2022
RA-1 Enrico Fermi Thermal capacity (rated) 0.04 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RA-3 Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RA-6 Thermal capacity (rated) 0.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RA-8 Thermal capacity (rated) 10⁻⁵ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
OPAL Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HIFAR Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRIGA Mark II reactor, Vienna Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
BAEC TRIGA Research Reactor Thermal capacity (rated) 3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
BR1 Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
BR2 Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
VENUS-F Thermal capacity (rated) 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Argonauta Thermal capacity (rated) 2 × 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IEA-R1 Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IPEN/MB-01 Thermal capacity (rated) 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IPR-R1 Thermal capacity (rated) 0.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
McMaster Nuclear Reactor Thermal capacity (rated) 3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SLOWPOKE-2, Polytechnique Montréal Thermal capacity (rated) 0.02 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SLOWPOKE-2, Royal Military College of Canada Thermal capacity (rated) 0.02 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
ZED-2 Thermal capacity (rated) 2 × 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
NRU Thermal capacity (rated) 135 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RECH-1 Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RECH-2 Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
China Experimental Fast Reactor Thermal capacity (rated) 65 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
China Advanced Research Reactor Thermal capacity (rated) 60 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HTR-10 Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TMSR-LF1 Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IAN-R1 Thermal capacity (rated) 0.03 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
VR-1 Thermal capacity (rated) 5 × 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
LVR-15 Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
LR-0 Thermal capacity (rated) 0.005 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRICO II Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRICO I Thermal capacity (rated) 0.05 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
ETRR-2 Thermal capacity (rated) 22 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
ETRR-1 Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
ILL High-Flux Reactor Thermal capacity (rated) 58.3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
FRM II Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
GHARR-1 Thermal capacity (rated) 0.034 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
GRR-1 (Demokritos) Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Budapest Research Reactor Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
BME Training Reactor Thermal capacity (rated) 0.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Dhruva Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
CIRUS Thermal capacity (rated) 40 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Fast Breeder Test Reactor Thermal capacity (rated) 40 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
KAMINI Thermal capacity (rated) 0.03 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RSG-GAS Thermal capacity (rated) 30 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IRR-1 Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SLOWPOKE-2, University of the West Indies Thermal capacity (rated) 0.02 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
JRR-3 Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HTTR Thermal capacity (rated) 30 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Jōyō Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
NSRR Thermal capacity (rated) 0.3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
JMTR Thermal capacity (rated) 50 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
STACY Thermal capacity (rated) 2 × 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Kyoto University Research Reactor Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Kyoto University Critical Assembly Thermal capacity (rated) 10⁻⁴ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
UTR-KINKI Thermal capacity (rated) 10⁻⁶ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
WWR-K Thermal capacity (rated) 6 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IVG.1M Thermal capacity (rated) 35 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HANARO Thermal capacity (rated) 30 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
KRR-1 Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
KRR-2 Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
AGN-201K Thermal capacity (rated) 10⁻⁵ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IRT-1 (Tajoura) Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRIGA PUSPATI Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRIGA Mark III, Salazar Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HOR Thermal capacity (rated) 2.3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
High Flux Reactor, Petten Thermal capacity (rated) 45 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Halden Reactor Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
JEEP II Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PARR-1 Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PARR-2 Thermal capacity (rated) 0.03 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RP-10 Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
MARIA Thermal capacity (rated) 30 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
FiR 1 Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRIGA reactor, Pitești Thermal capacity (rated) 14 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SM-3 Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
MIR.M1 Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
BOR-60 Thermal capacity (rated) 60 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RBT-6 Thermal capacity (rated) 6 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RBT-10/2 Thermal capacity (rated) 7 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
VK-50 Thermal capacity (rated) 200 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IBR-2 Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
F-1 Thermal capacity (rated) 0.024 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PIK Thermal capacity (rated) 100 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
WWR-M (Gatchina) Thermal capacity (rated) 18 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IRT-MEPhI Thermal capacity (rated) 2.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
IRT-T Thermal capacity (rated) 6 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RA (Vinča) Thermal capacity (rated) 6.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRIGA Mark II, Ljubljana Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SAFARI-1 Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PROTEUS Thermal capacity (rated) 0.001 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
DIORIT Thermal capacity (rated) 30 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
SAPHIR Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
THOR Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TRR-1/M1 Thermal capacity (rated) 1.3 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TR-2 Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Dalat Nuclear Research Reactor Thermal capacity (rated) 0.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Advanced Test Reactor Thermal capacity (rated) 250 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Advanced Test Reactor Critical Thermal capacity (rated) 0.005 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
TREAT Thermal capacity (rated) 0.08 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
NRAD Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
High Flux Isotope Reactor Thermal capacity (rated) 85 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
NBSR Thermal capacity (rated) 20 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
MIT Research Reactor Thermal capacity (rated) 6 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
University of Missouri Research Reactor Thermal capacity (rated) 10 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Missouri S&T Reactor Thermal capacity (rated) 0.2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PULSTAR Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Ohio State University Research Reactor Thermal capacity (rated) 0.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Oregon State TRIGA Reactor Thermal capacity (rated) 1.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Breazeale Nuclear Reactor Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PUR-1 Thermal capacity (rated) 0.001 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Reed Research Reactor Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Texas A&M NSC TRIGA reactor Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
AGN-201M, Texas A&M Thermal capacity (rated) 5 × 10⁻⁶ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
McClellan TRIGA reactor Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
UC Irvine TRIGA reactor Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
University of Florida Training Reactor Thermal capacity (rated) 0.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Maryland University Training Reactor Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
UMass Lowell Research Reactor Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
UT Austin TRIGA Mark II Thermal capacity (rated) 1.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
University of Utah TRIGA reactor Thermal capacity (rated) 0.1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
University of Wisconsin Nuclear Reactor Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Washington State University Reactor Thermal capacity (rated) 1 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Kansas State University TRIGA Mark II Thermal capacity (rated) 0.25 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
AGN-201, Idaho State University Thermal capacity (rated) 5 × 10⁻⁶ MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Annular Core Research Reactor Thermal capacity (rated) 2.4 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
University of Illinois Advanced TRIGA Thermal capacity (rated) 1.5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Ford Nuclear Reactor Thermal capacity (rated) 2 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
CP-5 Thermal capacity (rated) 5 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Omega West Reactor Thermal capacity (rated) 8 MW MW claimed — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
HTR-PM demonstration plant, Shidao Bay Thermal capacity (rated) 500 MW MW claimed — HTR-PM - Wikipedia
Akademik Lomonosov Thermal capacity (rated) 300 MW MW claimed — Akademik Lomonosov - Wikipedia
Wendelstein 7-X R0 5.5 m m claimed — World Survey of Fusion Devices 2022
Wendelstein 7-X a 0.53 m m claimed — World Survey of Fusion Devices 2022
Wendelstein 7-X On-axis magnetic field 3 T T claimed — World Survey of Fusion Devices 2022
WEST R0 2.5 m m claimed — World Survey of Fusion Devices 2022
WEST a 0.5 m m claimed — World Survey of Fusion Devices 2022
WEST Plasma current 1 MA MA claimed — World Survey of Fusion Devices 2022
WEST On-axis magnetic field 3.7 T T claimed — World Survey of Fusion Devices 2022
WEST Plasma duration (nominal) 1,000 s s claimed — World Survey of Fusion Devices 2022
CFQS R0 1 m m planned — World Survey of Fusion Devices 2022
CFQS a 0.25 m m planned — World Survey of Fusion Devices 2022
CFQS On-axis magnetic field 1 T T planned — World Survey of Fusion Devices 2022
COMPASS-U R0 0.894 m m planned — World Survey of Fusion Devices 2022
COMPASS-U a 0.27 m m planned — World Survey of Fusion Devices 2022
COMPASS-U Plasma current 2 MA MA planned — World Survey of Fusion Devices 2022
COMPASS-U On-axis magnetic field 5 T T planned — World Survey of Fusion Devices 2022
COMPASS-U Plasma duration (nominal) 11 s s planned — World Survey of Fusion Devices 2022
DTT R0 2.19 m m planned — World Survey of Fusion Devices 2022
DTT a 0.7 m m planned — World Survey of Fusion Devices 2022
DTT Plasma current 5.5 MA MA planned — World Survey of Fusion Devices 2022
DTT On-axis magnetic field 6 T T planned — World Survey of Fusion Devices 2022
DTT Plasma duration (nominal) 100 s s planned — World Survey of Fusion Devices 2022
ITER R0 6.2 m m planned — World Survey of Fusion Devices 2022
ITER a 2 m m planned — World Survey of Fusion Devices 2022
ITER Plasma current 15 MA MA planned — World Survey of Fusion Devices 2022
ITER On-axis magnetic field 5.3 T T planned — World Survey of Fusion Devices 2022
ITER Plasma duration (nominal) 3,000 s s planned — World Survey of Fusion Devices 2022
PLATO R0 0.7 m m planned — World Survey of Fusion Devices 2022
PLATO a 0.25 m m planned — World Survey of Fusion Devices 2022
PLATO Plasma current 0.075 MA MA planned — World Survey of Fusion Devices 2022
PLATO On-axis magnetic field 0.3 T T planned — World Survey of Fusion Devices 2022
PLATO Plasma duration (nominal) 0.2 s s planned — World Survey of Fusion Devices 2022
AP300 reactor design · Westinghouse Electric Company Net electrical capacity (rated) 330 MW MW planned — AP300 SMR
AP300 reactor design · Westinghouse Electric Company Thermal capacity (rated) 990 MW MW planned — AP300 SMR
eVinci reactor design · Westinghouse Electric Company Net electrical capacity (rated) 5 MW MW planned — eVinci microreactor
eVinci reactor design · Westinghouse Electric Company Thermal capacity (rated) 15 MW MW planned — eVinci microreactor
BWRX-300 reactor design · GE Vernova Hitachi Nuclear Energy Net electrical capacity (rated) 300 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "BWRX-300 (GE-Hitachi Nuclear Energy and Hitachi-GE Nuclear Energy)"
BWRX-300 reactor design · GE Vernova Hitachi Nuclear Energy Thermal capacity (rated) 870 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "BWRX-300 (GE-Hitachi Nuclear Energy and Hitachi-GE Nuclear Energy)"
Economic Simplified Boiling Water Reactor (ESBWR) reactor design · GE Vernova Hitachi Nuclear Energy Net electrical capacity (rated) 1,520 MW MW planned — BWRX-300 small modular reactor
NuScale Power Module (US460) reactor design · NuScale Power Net electrical capacity (rated) 77 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "NuScale Power Module (NuScale Power, LLC)"
NuScale Power Module (US460) reactor design · NuScale Power Thermal capacity (rated) 250 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "NuScale Power Module (NuScale Power, LLC)"
SMR-300 reactor design · Holtec International Net electrical capacity (rated) 320 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SMR-300 (Holtec International)"
SMR-300 reactor design · Holtec International Thermal capacity (rated) 1,050 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SMR-300 (Holtec International)"
Rolls-Royce SMR reactor design · Rolls-Royce SMR Net electrical capacity (rated) 470 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Rolls-Royce SMR (Rolls-Royce)"
Rolls-Royce SMR reactor design · Rolls-Royce SMR Thermal capacity (rated) 1,358 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Rolls-Royce SMR (Rolls-Royce)"
KP-FHR reactor design · Kairos Power Net electrical capacity (rated) 75 MW MW planned — Kairos Power: technology page
Natrium reactor design · TerraPower Net electrical capacity (rated) 345 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "The Natrium Project (TerraPower, LLC)"
Natrium reactor design · TerraPower Thermal capacity (rated) 840 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "The Natrium Project (TerraPower, LLC)"
Xe-100 reactor design · X-energy Net electrical capacity (rated) 80 MW MW planned — Xe-100
Xe-100 reactor design · X-energy Thermal capacity (rated) 200 MW MW planned — Xe-100
Aurora powerhouse reactor design · Oklo Net electrical capacity (rated) — MW MW planned — Oklo Inc. Form 10-K for the fiscal year ended 31 December 2025
Aalo-1 reactor design · Aalo Atomics Net electrical capacity (rated) 10 MW MW planned — Aalo - Welcome to the dawn of a Second Atomic Age
Aalo-1 reactor design · Aalo Atomics Thermal capacity (rated) 30 MW MW planned — Aalo - Welcome to the dawn of a Second Atomic Age
R1 Microreactor reactor design · Antares Nuclear Net electrical capacity (rated) — MW MW planned — Antares Nuclear home page
BWXT Advanced Nuclear Reactor (BANR) reactor design · BWX Technologies Thermal capacity (rated) 75 MW MW planned — BWXT Advanced Nuclear Reactor (BANR)
SEALER-55 reactor design · Blykalla Net electrical capacity (rated) 55 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SEALER-55 (Blykalla)"
SEALER-55 reactor design · Blykalla Thermal capacity (rated) 140 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SEALER-55 (Blykalla)"
CAREM reactor design · CNEA Net electrical capacity (nominal) 30 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "CAREM (CNEA, Argentina)"
CAREM reactor design · CNEA Thermal capacity (rated) 100 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "CAREM (CNEA, Argentina)"
ACP100 reactor design · CNNC Net electrical capacity (rated) 125 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "ACP100 (CNNC, China)"
ACP100 reactor design · CNNC Thermal capacity (rated) 385 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "ACP100 (CNNC, China)"
ACP100S reactor design · CNNC Net electrical capacity (rated) 125 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "ACP100S (CNNC, China)"
ACP100S reactor design · CNNC Thermal capacity (rated) 385 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "ACP100S (CNNC, China)"
Copenhagen Atomics Waste Burner reactor design · Copenhagen Atomics Thermal capacity (rated) 100 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Copenhagen Atomics Waste Burner (Copenhagen Atomics)"
Gravity Nuclear Reactor reactor design · Deep Fission Net electrical capacity (rated) 15 MW MW planned — Technology
Jimmy reactor design · Jimmy Thermal capacity (rated) — MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "JIMMY (JIMMY ENERGY SAS)"
SMART reactor design · KAERI Net electrical capacity (rated) 107 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SMART (KAERI and K.A.CARE)"
SMART reactor design · KAERI Thermal capacity (rated) 365 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SMART (KAERI and K.A.CARE)"
i-SMR reactor design · Korea Hydro & Nuclear Power Net electrical capacity (rated) 170 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "i-SMR (KHNP and KAERI)"
i-SMR reactor design · Korea Hydro & Nuclear Power Thermal capacity (rated) 520 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "i-SMR (KHNP and KAERI)"
PWR-20 reactor design · Last Energy Net electrical capacity (nominal) 20 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "PWR-20 (Last Energy Inc.)"
PWR-20 reactor design · Last Energy Thermal capacity (rated) 80 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "PWR-20 (Last Energy Inc.)"
Stable Salt Reactor - Wasteburner (SSR-W) reactor design · Moltex Energy Net electrical capacity (rated) 300 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Stable Salt Reactor - Wasteburner (Moltex Energy)"
Stable Salt Reactor - Wasteburner (SSR-W) reactor design · Moltex Energy Thermal capacity (rated) 750 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Stable Salt Reactor - Wasteburner (Moltex Energy)"
KRONOS MMR reactor design · NANO Nuclear Energy Net electrical capacity (rated) — MW MW planned — KRONOS MMR
KRONOS MMR reactor design · NANO Nuclear Energy Thermal capacity (rated) — MW MW planned — KRONOS MMR
LOKI MMR reactor design · NANO Nuclear Energy Net electrical capacity (rated) — MW MW planned — LOKI MMR
LOKI MMR reactor design · NANO Nuclear Energy Thermal capacity (rated) — MW MW planned — LOKI MMR
LFR-AS-200 reactor design · newcleo Net electrical capacity (rated) 200 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "LFR-AS-200 (NewCleo)"
LFR-AS-200 reactor design · newcleo Thermal capacity (rated) 480 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "LFR-AS-200 (NewCleo)"
RITM-200N reactor design · OKBM Afrikantov Net electrical capacity (rated) 55 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "RITM-200N (JSC "Afrikantov OKBM")"
RITM-200N reactor design · OKBM Afrikantov Thermal capacity (rated) 190 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "RITM-200N (JSC "Afrikantov OKBM")"
RITM-200M reactor design · OKBM Afrikantov Net electrical capacity (rated) 50 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "RITM-200M (JSC "Afrikantov OKBM")"
RITM-200M reactor design · OKBM Afrikantov Thermal capacity (rated) 198 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "RITM-200M (JSC "Afrikantov OKBM")"
ABV-6E reactor design · OKBM Afrikantov Net electrical capacity (rated) — MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "ABV-6E (JSC "Afrikantov OKBM")"
VBER-300 reactor design · OKBM Afrikantov Net electrical capacity (rated) 325 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "VBER-300 (JSC "Afrikantov OKBM")"
VBER-300 reactor design · OKBM Afrikantov Thermal capacity (rated) 917 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "VBER-300 (JSC "Afrikantov OKBM")"
SHELF-M reactor design · NIKIET Net electrical capacity (rated) 10 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SHELF-M (NIKIET)"
SHELF-M reactor design · NIKIET Thermal capacity (rated) 35 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SHELF-M (NIKIET)"
UNITHERM reactor design · NIKIET Net electrical capacity (rated) 6.6 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "UNITHERM (NIKIET)"
UNITHERM reactor design · NIKIET Thermal capacity (rated) 30 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "UNITHERM (NIKIET)"
GT-MHR reactor design · OKBM Afrikantov Net electrical capacity (rated) 288 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "GT-MHR (JSC "Afrikantov OKBM")"
GT-MHR reactor design · OKBM Afrikantov Thermal capacity (rated) 600 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "GT-MHR (JSC "Afrikantov OKBM")"
MHR-100 reactor design · OKBM Afrikantov Net electrical capacity (rated) — MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MHR-100 (JSC "Afrikantov OKBM")"
MHR-100 reactor design · OKBM Afrikantov Thermal capacity (rated) 215 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MHR-100 (JSC "Afrikantov OKBM")"
MHR-T reactor design · OKBM Afrikantov Net electrical capacity (rated) 205.5 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MHR-T Reactor (JSC "Afrikantov OKBM")"
MHR-T reactor design · OKBM Afrikantov Thermal capacity (rated) 600 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MHR-T Reactor (JSC "Afrikantov OKBM")"
SVBR-100 reactor design · Rosatom Net electrical capacity (rated) 100 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SVBR-100 (AKME-engineering JSC)"
SVBR-100 reactor design · Rosatom Thermal capacity (rated) 280 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "SVBR-100 (AKME-engineering JSC)"
Compact Molten Salt Reactor (CMSR) reactor design · Saltfoss Energy Net electrical capacity (rated) 110 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "CMSR (Seaborg Technologies)"
Compact Molten Salt Reactor (CMSR) reactor design · Saltfoss Energy Thermal capacity (rated) 250 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "CMSR (Seaborg Technologies)"
LDR-50 reactor design · Steady Energy Thermal capacity (rated) 50 MW MW planned — LDR-50
Stellarium reactor design · Stellaria Net electrical capacity (rated) 110 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Stellarium (Stellaria)"
Stellarium reactor design · Stellaria Thermal capacity (rated) 250 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Stellarium (Stellaria)"
SOLO reactor design · Terra Innovatum Net electrical capacity (rated) 1 MW MW planned — Home | SOLO Micromodular Nuclear Reactor
SOLO reactor design · Terra Innovatum Thermal capacity (rated) — MW MW planned — Home | SOLO Micromodular Nuclear Reactor
Integral Molten Salt Reactor (IMSR) reactor design · Terrestrial Energy Net electrical capacity (rated) 195 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "IMSR400 (Terrestrial Energy Inc.)"
Integral Molten Salt Reactor (IMSR) reactor design · Terrestrial Energy Thermal capacity (rated) 442 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "IMSR400 (Terrestrial Energy Inc.)"
ThorCon reactor design · ThorCon International Net electrical capacity (rated) 250 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Thorcon (Thorcon International)"
ThorCon reactor design · ThorCon International Thermal capacity (rated) 557 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Thorcon (Thorcon International)"
Thorizon One reactor design · Thorizon Net electrical capacity (rated) 100 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "THORIZON (THORIZON B.V.)"
Thorizon One reactor design · Thorizon Thermal capacity (rated) 250 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "THORIZON (THORIZON B.V.)"
4S reactor design · Toshiba Net electrical capacity (rated) 10 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "4S (Toshiba Corporation)"
4S reactor design · Toshiba Thermal capacity (rated) 30 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "4S (Toshiba Corporation)"
MoveluX reactor design · Toshiba Net electrical capacity (rated) — MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MoveluX (Toshiba Energy Systems & Solutions)"
MoveluX reactor design · Toshiba Thermal capacity (rated) 10 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "MoveluX (Toshiba Energy Systems & Solutions)"
Energy Multiplier Module (EM2) reactor design · General Atomics Net electrical capacity (rated) 265 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Energy Multiplier Module (EM2) (General Atomics)"
Energy Multiplier Module (EM2) reactor design · General Atomics Thermal capacity (rated) 500 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Energy Multiplier Module (EM2) (General Atomics)"
Fast Modular Reactor (FMR) reactor design · General Atomics Net electrical capacity (rated) 44 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Fast Modular Reactor (FMR) (General Atomics)"
Fast Modular Reactor (FMR) reactor design · General Atomics Thermal capacity (rated) 100 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Fast Modular Reactor (FMR) (General Atomics)"
GTHTR300 reactor design · JAEA Net electrical capacity (rated) — MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "GTHTR300 (JAEA Consortium)"
HTR50S reactor design · JAEA Net electrical capacity (rated) 17.2 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "HTR50S (JAEA)"
HTR50S reactor design · JAEA Thermal capacity (rated) 50 MW MW planned — IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "HTR50S (JAEA)"
PST R0 0.5 m m planned — World Survey of Fusion Devices 2022
PST a 0.25 m m planned — World Survey of Fusion Devices 2022
PST Plasma current 0.31 MA MA planned — World Survey of Fusion Devices 2022
PST On-axis magnetic field 0.5 T T planned — World Survey of Fusion Devices 2022
SMART Plasma current 0.5 MA MA planned — World Survey of Fusion Devices 2022
SMART On-axis magnetic field 1 T T planned — World Survey of Fusion Devices 2022
SMART Plasma duration (nominal) 0.5 s s planned — World Survey of Fusion Devices 2022
SPARC R0 1.85 m m planned — World Survey of Fusion Devices 2022
SPARC a 0.57 m m planned — World Survey of Fusion Devices 2022
SPARC Plasma current 8.7 MA MA planned — World Survey of Fusion Devices 2022
SPARC On-axis magnetic field 12.2 T T planned — World Survey of Fusion Devices 2022
SSST R0 0.28 m m planned — World Survey of Fusion Devices 2022
SSST a 0.16 m m planned — World Survey of Fusion Devices 2022
SSST Plasma current 0.028 MA MA planned — World Survey of Fusion Devices 2022
SSST On-axis magnetic field 0.15 T T planned — World Survey of Fusion Devices 2022
TT-1 R0 0.65 m m planned — World Survey of Fusion Devices 2022
TT-1 a 0.2 m m planned — World Survey of Fusion Devices 2022
TT-1 Plasma current 0.1 MA MA planned — World Survey of Fusion Devices 2022
TT-1 On-axis magnetic field 1.52 T T planned — World Survey of Fusion Devices 2022
Infinity Two Net electrical capacity (design) 400 MW MW planned — typeoneenergy.com/our-technology/
Infinity Two Fusion power (design) 800 MW MW planned — typeoneenergy.com/our-technology/
ARC Net electrical capacity (design) 400 MW MW planned — ARC
EU-DEMO Net electrical capacity (design) — MW MW planned — DEMO: the demonstration power plant
RA-10 Thermal capacity (rated) 30 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
MYRRHA Thermal capacity (rated) 85 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
RMB (Brazilian Multipurpose Reactor) Thermal capacity (rated) 30 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Jules Horowitz Reactor Thermal capacity (rated) 100 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
KJRR Thermal capacity (rated) 15 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
PALLAS Thermal capacity (rated) 25 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
MBIR Thermal capacity (rated) 150 MW MW planned — IAEA Research Reactor Database (RRDB): public reactor list (JSON behind nucleus.iaea.org/rrdb)
Long Mott Generating Station Thermal capacity (rated) 800 MW MW planned — Long Mott Energy, LLC; Long Mott Generating Station; Notice of Hearing (FR Doc 2026-16975)
Clinch River Nuclear Site Unit 1 Thermal capacity (rated) 870 MW MW planned — Tennessee Valley Authority; Clinch River Nuclear Site, Unit 1; Notice of Hearing (FR Doc 2026-13662)
Hermes test reactor Thermal capacity (rated) 35 MW MW planned — Kairos Power (Wikipedia)
BREST-OD-300 Thermal capacity (rated) 700 MW MW planned — BREST (reactor) - Wikipedia
Linglong One demonstration unit, Changjiang Thermal capacity (rated) 385 MW MW planned — China National Nuclear Corporation
SCR-1 Plasma current 0.04 MA MA disputed — World Survey of Fusion Devices 2022
STOR-M Plasma duration (nominal) 0.005 s s disputed — World Survey of Fusion Devices 2022
KP-FHR reactor design · Kairos Power Net electrical capacity (rated) 140 MW MW superseded 2024 IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "KP-FHR (Kairos Power)"
KP-FHR reactor design · Kairos Power Thermal capacity (rated) 320 MW MW superseded 2024 IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "KP-FHR (Kairos Power)"
Xe-100 reactor design · X-energy Net electrical capacity (rated) 82.5 MW MW superseded 2024 IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Xe-100 (X Energy, LLC)"
Aurora powerhouse reactor design · Oklo Net electrical capacity (rated) — MW MW superseded 2024 IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Aurora Powerhouse Product Line (Oklo Inc.)"
Aurora powerhouse reactor design · Oklo Thermal capacity (rated) — MW MW superseded 2024 IAEA ARIS Small Modular Reactor Technology Catalogue 2024, section "Aurora Powerhouse Product Line (Oklo Inc.)"