Point being, higher voltages represent higher kinetic energies . It's
similar to utilizing a photoneutron or a laser to commit fusion or
fission. Until the plasma is so hot that it contains those photons,
or the the total abundance of energy presented by the plasma reaches
that threshold, fission or fusion will not occur. The photoneutron
pretty well resolves the issue here. The combined amount of binding
energy must be there at that point.
When you look at the types of atom smashers there have been in the
past, some are just Van DeGraff Generators. There would be some push
and pull involved in sending a high voltage transient through the
plasma.
A neutron counter, gamma ray counter, x-ray counter all working
together should allow you to make a determination as to whether the
transient assist and kinetic energy fluxuations do anything to change
the rates. I'm thinking that the binding energy that plays a role
with photons and fission and or fusion can be achieved with a combo
punch inside of a tokamak or similar design.
The set up should be simple because, you'd just be using one of your
pipes/waveguides to produce a transient instead of maintaining a full
blown magnetron or something to that effect. The field should be in
excess of 1 billion volts. Hitting that inductor doesn't stop it from
moving from that junction down another waveguide.
All I am saying is that the combined energy of the heat/photon isn't
quite enough as of yet. From what I've seen of the designs, you're
having no trouble producing high currents. But the photon is
consistant of two sides of an electromagnetic wave. EMM and EMF. I
don't believe the EMF, or electro motive force is high enough and the
electrons would be moving allot faster through the medium. The
electron's collisions only change the nucli temperature. But, a
direct impact imparts the velocity of the electron divided down by the
mass of the nucli. So, the nucli would hit higher velocities with the
plasma as well. So, everything about that working is not thermal.