Originally posted by: Mayson
If you wanted a huge current you could just use step down transformers, increase the efficiency with superconductors. Afterall, we get more casimir effect at low temperatures anyway. With the voltage source (the piezoelectric) in parallel to whatever circuit we're driving and the capacitor, we get to apply the same voltage across both. In our circuit we can use a transformer to get some nice current and the big voltage to charge the capacitor very quickly. It seems as if the repulsive force generated from the charged plates is MUCH stronger than the casimir force so even if you lost some energy due to some inefficiency you should be able to generate a strong enough force to seperate them and have a little energy left over. Instead of having the capacitor discharge into the ground to reset the machine you could even have that energy used to drive some other circuit too.
For example, with our 7.61109X10^11 volts generated.... lets say we have a .5 farad capacitor.
Q= VC = 7.61109X10^11 * .5 = 3.80555E11 Colombs
now, we have to split that charge between our two plates, so each one has 1.90277X10^11 Colombs of chage
The force between them is F = Q^2 / (2 * A * e) (I seem to remember this being the equation, seems like there should be a distance in there somewhere)
Where q = charge, A = area of the plates, e = pemitivity of free space
F = (1.90277X10^11)^2 / (2 * 100 * 8.85X10^-12) = 2.05X10^31 Newtons!!!!!
Now if we only were able to get a small fraction of that charge on each plate, I think we should be able to overcome the .13 Newtons from the casimir effect.