  The paper deals with relationships between the individual transmembrane
fluxes of binary electrolyte solution components and the experimentally
measurable quantities describing rates of transfer processes, namely, the
electric current, the transmembrane volume flow and the rates of concentration
changes in the solutions adjacent to the membrane. Also, we collected and
rigorously defined the kinetic coefficients describing the membrane selective
and electrokinetic properties. A set of useful relationships between these
coefficients is derived. An important specificity of the proposed analysis is
that it does not use the Irreversible Thermodynamic approach by analyzing no
thermodynamic forces that generate the fluxes under consideration. Instead, all
the regularities are derived on the basis of conservation and linearity
reasons. The terminology "Kinematics of Fluxes" is proposed for such an
analysis on the basis of the analogy with Mechanics where Kinematics deals with
regularities of motion by considering no mechanic forces. The only
thermodynamic steps of the analysis relate to the discussion on the partial
molar volumes of electrolyte and ions that are the equilibrium thermodynamic
parameters of the adjacent solutions. These parameters are important for
interrelating between the transmembrane fluxes of the solution components and
the transmembrane volume flow. The paper contains short literature reviews
concerned with the partial molar volumes of electrolyte and ions: the methods
of measurement, the obtained results and their theoretical interpretations. It
is concluded from the reviews that the classical theories should be corrected
to make them applicable for sufficiently concentrated solutions, 1M or higher.
The proposed correction is taken into account in the kinematic analysis.
