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We present the results of calculations of thermal conductivity and shear-viscosity coefficients of ultracold single charged two-component classical Coulomb plasma by the method of molecular dynamics (MMD). The calculations are carried out in a wide range of Coulomb coupling parameters. The comparison with analytical expressions and calculations of MMD for the model of one-component plasma on a uniform background is presented for conditions where experimental measurements are lacking. The results obtained for our model can be used for any equilibrium or nonequilibrium strongly coupled plasmas, in which quantum effects are negligible.

Critical temperature is calculated for Bose-Einstein condensation of hard spheres with attraction using the path-integral Monte Carlo (PIMC) method and finite-size scaling. It is demonstrated that the scattering length is not the only parameter which the critical temperature depends on. It is also shown that Bose condensation may be observed in the case of negative scattering length.

We present the results of calculations of diffusion coefficients and electrical conductivity of ultracold single and multiply charged plasma by the method of molecular dynamics. The calculations are carried out in a wide range of Coulomb coupling parameters. We thus gain access to fundamental aspects of strongly coupled plasmas under conditions where experimental measurements are difficult. The results obtained for our model can be used for any equilibrium or nonequilibrium strongly coupled plasmas, in which quantum effects are negligible. Comparison with experimental data is made. Theoretical and experimental results are in good agreement. It is shown that the law of similarity for Coulomb systems is valid in a wide region of coupling.