that sequentially simulates every type of electrochemical cell
possible and tests it for performance. Working with roughly
60 possible (usable, practical)chemical elements and allowing, say, 3
elements for
the first electrode, up to three elements again for the electrolyte
and 3 for the second electrode, this gives 60^9 = 10,077,696,000,000,000
possible battery types, not an insurmountable number of calculations
for a computer network or modern supercomputer.
Many of the elements and compounds generated by the permutator
could be immediately discarded, such as the inert gases for instance
and rare elements such as astatine, osmium, iridium etc, also many
compounds such as sodium cloride could immediately be skipped,
compounds for electrodes that are not conductive would similarly be
discarded along with combinations where the electrodes are corroded
by or soluble in the electrolyte.
The chemistry of all existing batteries is well-known, easily computed and
the
performance (eg power and energy densities, cell voltage etc) also readily
calculated. Surely a program of this type may yield a battery chemistry
that has not been hitherto discovered. It's accuracy, prior to launch, could
be tested by
plugging in existing cells and comparing it's output results against known
measured
parameters.