  There has been much recent interest in directly measuring the electric dipole
moments (EDM) of the proton and the electron. Such a measurement will require
storing a polarized beam of "frozen spin" particles in an all-electric storage
ring. Only one such relativistic electric accelerator has ever been built---the
"Electron Analogue" ring at Brookhaven National Laboratory in 1954. By chance
this electron ring, long since dismantled, would have been appropriate both for
measuring the electron EDM and to serve as an inexpensive prototype for the
arguably more promising, but ten times more expensive, proton EDM measurement.
  Today it is cheaper yet to "resurrect" the Electron Analogue ring by
simulating its performance computationally. This is one purpose for the present
paper. To set up these calculations has required a kind of "archeological
physics" to reconstitute the detailed Electron Analogue lattice design. The new
UAL/ETEAPOT code, described in detail in an accompanying paper, has been
developed for modeling storage ring performance, including (exact BMT) spin
evolution, in electric rings. Illustrating its use, comparing its predictions
with the old observations, and describing new expectations concerning spin
evolution and code performance, are other goals of the paper.
  This paper describes the practical application of the ETEAPOT code and
provides sample results, with emphasis on emulating lattice optics in the AGS
Analogue ring for comparison with the historical maching studies and to predict
the electron spin evolution they would have measured. To exhibit the ETEAPOT
code performance and confirm its symplecticity, results are also given for 30
million turn proton spin tracking in an all-electric lattice that would be
appropriate for a present day measurement of the proton EDM.
