The liquid-glass transition of the restricted primitive model for a symmetr
ical molten salt is studied using mode-coupling theory. The transition at h
igh densities is predicted to obey the Lindemann criterion for melting, and
the charge-density peak found in neutron-scattering experiments on ionic g
lass formers is qualitatively reproduced. Frequency-dependent dielectric fu
nctions, shear viscosities, and dynamical conductivities of the supercooled
liquid are presented. Comparing the latter to the diffusion constant, we f
ind that mode-coupling theory reproduces the Nernst-Einstein relation. The
Stokes-Einstein radius is found to be approximately equal to the particle r
adius only near the high-density glass transition. [S1063-651X(99)08609-2].