Lectures:
1. Crystallization. Solubility of solids in liquids, description of crystals,
principle of crystallization, nucleation, crystal growth, types of
crystallizers, design of equipment.
2. Multicomponent rectification. Equilibrium distillation, short-cut method
for column, Fenske equation.
3. Other distillation methods. Reactive distillation, molecular distillation,
water steam distillation.
4. Absorption with chemical reaction. Two-film theory, surface renewal theory,
experimental determination of the mass transfer coefficients, Hatta number,
single irreversible reactions.
5. Technology of 3D print and its application in chemical engineering.
6. Microfluidics a Microreactors.
Limit factors of process devices:
7. Multiphase flow regimes.
8. Trays columns. Sieve trays, valve trays and bubble cap trays. Geometry of
tray and weirs. Entrainment and weeping, Flooding of downcomer. Trays
fouling.
9. Packed column. Random packing. Structured packing. Columns internals.
Loading and flooding.
10. Optimization of heat transfer technology (Pinch analysis, Shell and Tube
design).
Project management of technological buildings:
11. Definition of project, basic concepts, feasibility studies, cash flows
(investments, operating costs, profitability).
12. Design of process technology and construction (Regalement, Process Flow
Diagram, Data Sheets, Piping & Instrumentation Diagram), legislation (EIA,
IPPC), construction of technology and testing.
13. Costs of construction (estimates of costs of building and technological
part).
Exercise:
Examples of selected lectures are solved using AspenPlus, Polymath, MATLAB and MS Excel software.
Practical design of a 3D chip in available CAD software, followed by 3D printing. Calculation of flow characteristics and pressure losses. Experimental verification of reactor function or microfluidic chip.
Creation of Process Flow Diagrams of chemical technologies and Piping & Instrumentation Diagram of process devices are created. Calculation of investment and operating costs are carried out.
1. Crystallization. Solubility of solids in liquids, description of crystals,
principle of crystallization, nucleation, crystal growth, types of
crystallizers, design of equipment.
2. Multicomponent rectification. Equilibrium distillation, short-cut method
for column, Fenske equation.
3. Other distillation methods. Reactive distillation, molecular distillation,
water steam distillation.
4. Absorption with chemical reaction. Two-film theory, surface renewal theory,
experimental determination of the mass transfer coefficients, Hatta number,
single irreversible reactions.
5. Technology of 3D print and its application in chemical engineering.
6. Microfluidics a Microreactors.
Limit factors of process devices:
7. Multiphase flow regimes.
8. Trays columns. Sieve trays, valve trays and bubble cap trays. Geometry of
tray and weirs. Entrainment and weeping, Flooding of downcomer. Trays
fouling.
9. Packed column. Random packing. Structured packing. Columns internals.
Loading and flooding.
10. Optimization of heat transfer technology (Pinch analysis, Shell and Tube
design).
Project management of technological buildings:
11. Definition of project, basic concepts, feasibility studies, cash flows
(investments, operating costs, profitability).
12. Design of process technology and construction (Regalement, Process Flow
Diagram, Data Sheets, Piping & Instrumentation Diagram), legislation (EIA,
IPPC), construction of technology and testing.
13. Costs of construction (estimates of costs of building and technological
part).
Exercise:
Examples of selected lectures are solved using AspenPlus, Polymath, MATLAB and MS Excel software.
Practical design of a 3D chip in available CAD software, followed by 3D printing. Calculation of flow characteristics and pressure losses. Experimental verification of reactor function or microfluidic chip.
Creation of Process Flow Diagrams of chemical technologies and Piping & Instrumentation Diagram of process devices are created. Calculation of investment and operating costs are carried out.