The beam transport and separation system of the Moscow Meson Facility provides the possibility of simultaneous studies on experimental facilities due to H--beam splitting which is produced by charge exchange of the beam fraction (H- only if H+) on a foil with the subsequent 2cm separation of the opposite signs particles in the vertical plane using dipole magnets. Splitting of one of the beams from the main path to the experimental targets is performed by splitter-magnets, which are dipole magnets with the through channels in pole faces, separated from the interpole gap with the steel septum. The channel profile has been optimized using two-dimensional calculations. Three-dimensional simulation has been performed aimed at edge fields shaping. The calculation data are compared with the magnet measurement results. Full-scale model of the two-channel splitting magnet has been developed and constructed in D.V.Efremov Institute.

A rather small accelerating complex for the increasing of the ion beam energy up to the Coulomb threshold value (6.5 MeV per nuoleon) is proposed. The oomplex consists of two isochronous cyclotrons, an ECR ion souroe and a storage ring for ion charge-state ohanging. Rather moderate dimensions, wei and power consumption f? t are obtained by he adaptof a specific scheme usually used with lunacs. 13eing designed for the heavy radioaotive nuclei aooelerating, this oomplex is sunnosed to be included to the large-scale aocelGating projects such as Moscow Meson Faoility, TRIUhCF in Canada and so on. On the other hand, it can be used independently for aooelerating heavy and medium stable ions.