Mechanisms of transverse conductivity and generation of self-consistent electric fields in strongly ionized magnetized plasma; V. Rozhansky. 1. Introduction -- 2. Conductivity tensor in partially ionized plasma -- 3. Main mechanisms of perpendicular conductivity in fully ionized plasma -- 4. Acceleration of plasma clouds in an inhomogeneous magnetic field -- 5. Alfven conductivity -- 6. Perpendicular viscosity, radial current, and radial electric field in an infinite cylinder -- 7. Current systems in front of a biased electrode (flush-mounted probe) and spot of emission -- 8. Currents in the vicinity of a biased electrode that is smaller than the ion gyroradius -- 9. Neoclassical perpendicular conductivity in a tokamak -- 10. Transverse conductivity in a reversed field pinch -- 11. Modeling of electric field and currents in the tokamak edge plasma -- 12. Mechanisms of anomalous perpendicular viscosity and viscosity-driven currents -- 13. Transverse conductivity in a stochastic magnetic field -- 14. Electric fields generated in the shielding layer between hot plasma and a solid state.-- Correlations and anomalous transport models; O.G. Bakunin. 1. Introduction -- 2. Turbulent diffusion and transport -- 3. Non-local effects and diffusion equations -- 4. The Corrsin conjecture -- 5. Effects of seed diffusivity -- 6. The diffusive tracer equation and averaging -- 7. The quasi-linear approximation -- 8. The diffusive renormalization -- 9. Anomalous transport and convective cells -- 10. Stochastic instability and transport -- 11. Fractal conceptions and turbulence -- 12. Percolation and scalings -- 13. Percolation and turbulent transport scalings -- 14. The temporal hierarchy of scales and correlations -- 15. The stochastic magnetic field and percolation transport -- 16. Percolation in drift flows -- 17. Multiscale flows -- 18. Subdiffusion and traps -- 19. Continuous time random walks -- 20. Fractional differential equations and scalings -- 21. Correlation and phase-space -- 22. Conclusion.