Another consideration here is the nature of superconductivity. A superconductive transmission line would not simply be hooked up to a copper (or silver) buss wire at each end since there is no true "electron flow" in a superconductor. Superconductors, particularly of the ORMUS type, are probably Bose-Einstein Condensates (BECs). As BECs the entire superconducting structure would "behave" as if it were a single atom.
In order to get electricity into a superconductor you must use the resonance coupling phenomenon which works by pumping energy into the superconductor by exposing it to a magnetic field which is fluctuating at the resonance frequency of the superconductor. You pump the energy back out of the superconductor at the other end of the line by reversing this process. In a sense the superconductor is acting as a great long battery which is being charged at one end and is being discharged at the other end.
You must take electricity off of a normal conductor as fast as you are putting it on at the generator end. With a superconductor, you can fill it up with energy one day and take the energy out the next day. This would provide a marvelous load leveling and energy storage capacity for our electrical distribution system. Power plants could operate at peak efficiency or not at all. Energy could be stored in the system during off-peak hours to be retrieved when the demand is highest.
In my value system this is one of the most positive uses
for the ORMUS elements that I can think of. The only downside might be
if the profusion of Meissner fields near transmission lines was harmful
to individuals or the environment.