Sure, along with He3 aneutronic fusion options making for less shielding/smaller plants but expensive fuel at least initially. Anything aneutronic is what should be in vehicles.
The concept is interesting, but the implementation is more complicated than just attaining the fuel and temperature and pressure.
The general idea is that in a "standard" fusion reaction you fuse a deuteron (H
2) and a triton (H
3) and produce He
4 and a high energy neutron (n
0) which you have to deal with via shielding, and you still need to convert the heat to electricity via some system (Steam turbine, thermocouple, etc).
A Light Helium Reactor requires higher temperature, but fuses a deuteron (H
2) and a helion (He
3) and produce He
4 and a high energy
proton (
1H
+1) which not only can easily be dealt with via electromagnetic fields, but can actually be used to be bent into a circular stream through the center of which you run your power cabling to induce a current directly without the neutron radiation problem. Sounds great.
But the problem is that in your reaction plasma, any and all reactions that
can take place at a given energy
will take place. So not only will you be reacting deuterons and helions, you will also be reacting deuterons with other deuterons, producing either tritons and protons or helions and neutrons, or deuterons will react with some of the tritons produced above, and produce alpha-helium-4 and neutrons. So the reacting plasma will still be producing some neutrons as part of its reaction cross section. The future design engineers will need to come up with a design that can isolate the reactants in order to be truly aneutronic.
I became enamored of the muon type as it seems like just the thing for the massive power spike/fuel use implied in the jump drive. So perhaps the next power plant level after jump is invented is that type.
I like the muon reaction as well, but you need a muon source (think damper-induced reverse-weak/beta muon genesis) , and you need to preserve the lifetime of the muon, and you need to solve the problem of muons binding to reaction products (or produce muons rapidly enough to supply the reactants over and above those removed by binding with reaction products).