Earlier quoted context omitted.
No, no there is not. Because 100% of the time so far in cold fusion, no one has built a device that actually works or subjected it to tests which would prove it does. Rossi is a fraud. His public tests always mysteriously wind up involving him tinkering with the device, and involve people he has prior relationships with.
Yeah, I don't get this. To overcome the Coulomb barrier at room temp (source: http://zidbits.com/2015/05/how-does-fusion-power-work/ ) is akin to claiming you built something which goes faster than light. That's why the term "cold fusion" has such a stigma attached to it, it's literally on the same physics defying level as perpetual motion machines. Because of the stigma attached to the term cold fusion, they have no…
U(coul) = (1 / 4PI e0) ( q1q2 / r)
U(coul) is the stated coloumb barrier. e0 is the permittivity of vacuum: https://en.wikipedia.org/wiki/Vacuum_permittivity q1, q2 are the charges of the interacting particles. r is the interaction radius.
So, if I want to lower U(coul), I either target q1 and q2 and make them smaller, or make e0 and/or r larger.
So, how do we do that? e0 seems like a prime area to do some math. The permittivity of water is 710. Are there higher ones? http://www.physics.usyd.edu.au/teach_res/db/d0006c.htm
Also, we know that high amounts of electricity strip the electrons off atoms. How does this change the coloumb barrier? Does it at all? At high enough electron densities, is it possible for an electron to hit a proton and make the next lower element at a different isotope?
It's also obvious that lighter metals are ideal, as they have less protons than heavier elements. Given that, which metals have a seemingly-valid energy path, IF the barrier can be surpassed?