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Table 1 Characteristics of different hydrogen-based nuclear reactions for energy production

From: Muon-catalyzed fusion and annihilation energy generation will supersede non-sustainable T + D nuclear fusion

Fuel reaction

Method

Reactor type

Power Range (thermal or electricity as indicated)

Efficiency (%)

Sustained over-break-even operation demonstrated

Commercial start

T + D

Plasma

Magnetic or inertial confinement

GWel?

18/4500 = 0.3%

–-

Much later than 2030?

T + D

Muon induced fusion

Tube reactor

MWth

18/4500 = 0.3%

2023

D + D…T + D

Muon induced fusion

Tube or planar reactor

15 kWth…MWth

4/3600 = 0.1%….

partial power 2015

2023

D + D

Annihilation

Planar reactor

200kWth–MW

10–50% estimated

partial power 2015

2023 est

D + D

Plasma

Magnetic or inertial confinement

4/3600 = 0.1… %

Never?

p + D… D + D

Muon induced fusion

Tube reactor

< < 20 kWth?

5.5/2700 = 0.2%

 

Never?

p + p

Annihilation

Planar reactor

200kWth–MW

10–50% est

2021

2023 est

p + p, D + D

Annihilation

mechanical

kWel–MWel

10–50% est

 

2030 est

  1. Est. means estimated. … means that the fuel composition changes over time in a closed reactor