26 hod., optionally

1. Chemical-engineering balances; processes of modeling; dimensional analysis; dimensionless criterion equations; philosophy of unit operations.
2. Energy flow balance; Bernoulli's equation; continuity equation; Reynolds criterion and its application in processes; branched systems.
3. Presure losses in piping systems; the expression of losses in equivalent lengths; Navier-Stockes equation; Darcy's equation; Moody's diagram; basics of aerodynamics.
4. Pumping of liquids; working height of the pump; pipeline characteristics; placing the pump in the pumping process; head height; cavitation; power and efficiency of the pump; methods of controlling the flow of liquids by the pump; types of hydrodynamic and volumetric pumps.
5. Sedimentation processes; Stokes' relationship; Archimed Criterion; the procedure for calculating the sedimentation speed; nomograms of sedimentation rate calculation and minimum particle size of the sedimentation particle; correction of sedimentation velocity for non-particle particles; settling of the particles in the suspension; continuous sedimentation equipment in practice.
6. Mixing; perfectly segregated, mixed and random mix; issues of sampling and homogeneity assessment; mixing devices; the criteria used to calculate the homogeneity, mixer power, heat and mass transfer rate; splitting types of mechanical agitators by purpose and mixing modes; dissipation of mechanical energy; laboratory mixers; trends of sparkling mixers; static mixer zones; kinetics of homogenization;
7. Particulate matter; parameters specifying a particular system; granulometry and an overview of granulometric methods used; conveyors and particle dispensers; disintegration of the solid phase; jet milling; media mills; calculations of grinding energy; grinding bodies; nanomaterials and applications of nanomaterials; basics of mechanochemistry; basics of grinding ingredients.
8. Flow through a porous partition; the equivalent diameter of the canvases; definition of specific surfaces; Ergun formula for coefficient of hydrodynamic resistance; two-phase flow columns; structured and bulk layers; Ramm diagram; application of porous layers in filtration, chromatography and TWC automotive catalysts; logic of asymmetric porous layers;
9. Fluidization; fluidization columns and fluidization modes; fluid combustion; pressure drop in the fluidized bed; ripple; dependence of the pressure and expansion of the fluid bed; mixed fluid layers.
10. Pressure filtration, general filtration equation; a partial solution for constant pressure filtration and a constant flow rate; graphical solutions of filter constants; types of filtration according to the size of the separated particles.
11. Heat sharing; basic concepts of heat sharing; Heat Transfer by Radiation, Stefan - Boltzmann's Law; absolutely black and white bodies; emissivity; heat sharing on scaling; general heat conduction equation; coefficients of thermal and thermal conductivity; steady heat conduction for planar and circular surfaces; steady heat conduction with a composite sandwich surface; thermal insulation of pipes; the problem of heat resistance of windows.
12. Convection heat sharing; Basic criteria for calculating heat transfer; convection natural and forced; the placement of physical constants into critical relationships.
13. Heat transfer; heat sharing during phase change; condensation processes and their calculations, Nusselt's relationship; var kapaliny; the heat flow / heat transfer coefficient of combustion at the boiler temperature gradient; exchanging and regenerative heat exchangers and their calculations; types of exchangers in practice.

26 hod., optionally

26 hod., compulsory