I have a "prior" for you. The Coulomb Barrier has already been overcome. The means to do this was first predicted on theoretical grounds before 1950. Nuclear fusion resulting from overcoming the Coulomb Barrier was first observed at Berkeley in 1956. The experimental results were published in the first comprehensive theoretical studies of this kind of fusion in a ground-breaking 1957 paper.tomclarke wrote:It is about priors.
Cold fusion does not fit into any experimentally supported framework. Not just the Coulomb barrier, but that all the other stuff you'd expect is not observed. The experimental data for it (incl Rossi) is fragmentary and incoherent. (I'm including W-L - which has its own issues and is also not consistent with Rossi befor/after isotopic ratio experimental results).
Put that with the extreme difficulty of finding any theory to get over Coulomb Barrier and that is a very high improbability.
To make any CF likely you need some combination of cast-iron experimental evidence & plausible theory (if you had a plausible theory the experimental evidence could be less strong).
You might just be very surprised to read about muon-catalyzed fusion:
http://en.wikipedia.org/wiki/Muon-catalyzed_fusion
"Muon-catalyzed fusion (uCF) is a process allowing nuclear fusion to take place at temperatures significantly lower than the temperatures required for thermonuclear fusion, even at room temperature or lower. Although it can be produced reliably with the right equipment and has been much studied, it is believed that the poor energy balance will prevent it from ever becoming a practical power source."
This article wasn't hard to find at all. This is even a repeatable and much-studied phenomena, there are many books and papers about it.
A muon with a unit negative charge can substitute for the single electron of a hydrogen atom. The muon, 207 times more massive than the electron, effectively shields and reduces the electromagnetic resistance between two nuclei and draws them much closer into a covalent bond than an electron can. The effective radius of the modified hydrogen is 207 times smaller than a normal hydrogen atom. Because the nuclei are so close, the strong nuclear force is able to kick in and bind both nuclei together.
It makes sense and is even relatively easy to explain.
As they say, life is often stranger than fiction ...