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A review of approaches for solving of basic chemical and ionic equilibrium is carried out. An extension for simultaneous reactions is then explained. Non-stoichiometric forms of equilibrium conditions and method of solving chemical equilibrium in systems with high number of reactions is discussed. Thermodynamic properties of the system containing solid solutions and alloys are demonstrated as well.
Last update: Řehák Karel (07.02.2018)
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Students will be able to:
Last update: Řehák Karel (07.02.2018)
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The exam computational test Last update: Řehák Karel (02.03.2018)
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R: Smith W.R. and Missen R.W.: Chemical Reaction Equilibrium Analysis, Theory and Algorithms, John Wiley & Sons, 1982 A: Holub R., Voňka P.: Chemická rovnováha heterogenních a kondenzovaných soustav, Academia Praha 1984 Last update: Řehák Karel (07.02.2018)
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1. Stoichiometry and mass balance equations. Stoichiometric form of equilibrium conditions. 2. Calculation of chemical equilibrium for a single reaction. 3. Thermochemical data of compounds and their reprocessing to required conditions. 4. Chemical equilibrium at constant volume and temperatute. Utilization of extensive criterions of equilibrium. 5. Stochiometry of simultaneous reactions. Stoichiometric and non-stoichiometric forms of mass balance. 6. Stoichiometric form of solution of chemical equilibrium for simultaneous reactions. 7. Solving of complex ionic equilibria (polyprotic acids, ampholytes, buffer solutions) 8. Demonstration of PHREEQC (professional freeware) and its capabilities. Database JESS. 9. Chemical equilibria in biological systems I: introduction to protein thermodynamics 10. Chemical equilibria in biological systems II: multidomain proteins, protein-ligand interactions 11. Basic principles of mathematical programming. Lagrange function, Kuhn-Tucker conditions. 12. Utilization of mathematical programming for solution of complex chemical equilibrium (non-stochiometric solution) 13. Chemical equilibrium in systems containing pure solids. Decomposition temperature of solids. 14. Chemical equilibrium in two- and three-component heterogeneous systems. Last update: Řehák Karel (27.08.2024)
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Basic information and learning resources: See the E-learning Last update: Řehák Karel (07.02.2018)
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Fyzikální chemie I, nebo Fyzikální chemie A,B Last update: Řehák Karel (07.02.2018)
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Teaching methods | ||||
Activity | Credits | Hours | ||
Účast na přednáškách | 0.5 | 14 | ||
Příprava na zkoušku a její absolvování | 1 | 28 | ||
Účast na seminářích | 0.5 | 14 | ||
2 / 2 | 56 / 56 |