
There's actually a way of using this for space propulsion if it works.
We do the same thing with the Megajoule Laser: we need an 85,000 m2 building that is difficult to use in space, we manage to have a fusion energy that is greater than the laser energy that is concentrated on the target, but much less than the electrical energy needed to create this laser energy, and on top of that, the cryogenic deuterium/lithium target in a solid state with an almost perfect surface state costs one million euros.There's actually a way of using this for space propulsion if it works.
I think they have actually managed to exceed the pumping energy of the laser though, not just the output. The question remains as to whether the 120% is electrical energy or raw thermal energy.We do the same thing with the Megajoule Laser: we need an 85,000 m2 building that is difficult to use in space, we manage to have a fusion energy that is greater than the laser energy that is concentrated on the target, but much less than the electrical energy needed to create this laser energy, and on top of that, the cryogenic deuterium/lithium target in a solid state with an almost perfect surface state costs one million euros.
It is a high-energy physics instrument but not a system that can produce energy cost-effectively today.