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The subject is focused on the development of the mathematical models of important physical and chemical processes occurring in materials. The models are developed using the approach based on experimental design in combination with regression analysis. Emphasis is put on detailed statistical analysis of experimental data and the developed models. The models are used for the optimization of the composition of materials with target properties. By applying numerical methods, physic-chemical processes are solved that are described by ordinary and partial differential equations.
Last update: VED107 (27.11.2013)
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Students will be able to: Plan experimental design and data analysis Develop mathematical models for materials’ properties and optimizing materials’ composition Numerically solve ordinary and partial differential equations Last update: VED107 (27.11.2013)
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R:Meloun M., Militký J.: Statistická analýza experimentálních dat, Academia, 2004, ISBN: 8020012540 R:Urbánek T., Škárka J.: Microsoft Excel 97 pro vědce a inženýry, Computer press, 1998, ISBN: 8072260995 A:Cornell J.A.: Experiments With Mixtures, John Wiley, 1981, ISBN: 0471079162 A:Jarník V.: Diferenciální počet (I), Academia, 1974, ISBN: 2110174 A:Jarník V.: Integrální počet (I), Academia, 1974, ISBN: 2110874 Last update: VED107 (23.08.2013)
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The subject teaching method is based on solving of practical material problems specially selected for particular topics. The problems are focused on the real development of new materials with advanced properties. In seminars, we broadly discus the solution of these problems and their modifications to deeper understand the presented topics. Last update: Havlík Míka Martin (23.08.2013)
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1. Overview of mathematical software for advanced applications in chemical engineering. 2. Experimental design. 3. Statistical analysis of data. 4. Regression analysis and fitting of models. 5. Statistical analysis of models, standard error, R square, t- and F-statistics, testing of hypothesis. 6. Calculation of materials’ properties from chemical composition. Composition optimization. 7. Numerical methods of derivation and integration. 8. Numerical solving of ordinary differential equations with initial value. 9. Numerical solving of ordinary differential equations - boundary problem. 10.Numerical solving of partial differential equations by finite differences method. 11.Numerical solving of heat transfer in glass and ceramics. 12.Numerical solving of mass transfer in glass and ceramics. 13.Numerical solving of wave function. 14.Individual project. Last update: Havlík Míka Martin (21.08.2013)
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Microsoft Excel, www.microsoft.com Last update: Havlík Míka Martin (20.08.2013)
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Mathematics I, Physics I Last update: Havlík Míka Martin (22.08.2013)
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Teaching methods | ||||
Activity | Credits | Hours | ||
Obhajoba individuálního projektu | 0.1 | 2 | ||
Práce na individuálním projektu | 0.4 | 12 | ||
Účast na seminářích | 1.5 | 42 | ||
2 / 2 | 56 / 56 |
Coursework assessment | |
Form | Significance |
Regular attendance | 50 |
Defense of an individual project | 50 |