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Chemical and Process Engineering (double degree)

Chemical and Process Engineering (double degree)

Doctoral programme, Faculty of Chemical Engineering

Programme is leading to two diplomas from both home university as well as partner university.

The PhD study programme Chemical and Process Engineering aims on the education of experts with a wide range of knowledge and skills for both academic and industrial applications. The students learn in detail theoretical basis of chemical and process engineering, bio-engineering and material engineering as well as experimental and practical aspects of the field. This will create prerequisites for their further career in the basic or applied research in chemical and process engineering but also in the related areas, such as material engineering, bio engineering and informatics.


Graduates of this study programme gain the expertise in transport phenomena, thermodynamics, reaction engineering, continuum fluid mechanics, material engineering and chemical-engineering aspects of environmental protection. Specialized knowledge includes applied informatics, mathematical modeling, numerical methods, non-linear dynamics and programming for scientific and technical computations. The graduates find jobs in applied research and development in chemical, pharmaceutical, bio-engineering and advanced material industry, including management of the research and development. The graduates are also successful in academic work at technical universities, research institutes and academies of sciences.

Programme Details

Foreign partner universities
KU Leuven, Belgium
Language of instruction English
Standard length of study 4 years
Form of study Full time
Guarantor of study programme doc. Ing. Petr Kočí, Ph.D.
Programme Code ADD401
Place of study Prague + partner university
Capacity 5 students
Number of available PhD theses 3
Recommended Curriculum Apply

List of available PhD theses

Formation of Microstructured Materials through Self-Assembly

Department: Department of Chemical Engineering, Faculty of Chemical Engineering
Theses supervisor: RNDr. Ivan Řehoř, Ph.D.


Self-assembly is a spontaneous arrangement of individual units - building blocks - into an ordered structure. The ordered structure has the lowest energy from all accessible building block arrangements, which drives the assembly process. The arrangement of the ordered structure is defined by the properties of the building blocks, such as their shape, material anisotropy or magnetic interaction with external field. Tailoring these properties to achieve desired structure can be considered 'programming' and may represent viable alternative to other ways of constructing micro and nanostructured materials. The question of lengthscales is crucial in self-assembly. When building blocks are small enough (We recently demonstrated, that we can assemble anisotropic hydrogel microparticles on solid liquid interface to form ordered 2D structures. We introduced novel mechanisms to control orientation of the building blocks during the self-assembly process and, thus, to not freeze in the disorderedd state. Ordered microparticles can be subsequently covalently bound together. The resulting structure - sheet - has complex mechanical properties i.e. ability to buckle in a preprogrammed way determined by the shape, size and material composition of the building blocks. The goal of the project is to find new approaches to the self-assembly of hydrogel microparticles and combine them with directed asembly methods using mobile microrobots developed in our team (https://www.youtube.com/watch?v=PQOXS7f9rDg). Resulting structures will find application in the preparation of metamaterials, microrobotics or tissue engineering.

Polymer-based membranes for highly selective removal of CO2 from biogas

Department: Department of Chemical Engineering, Faculty of Chemical Engineering
Theses supervisor: doc. Ing. Zdeněk Slouka, Ph.D.


Membrane-based gas separation technology has contributed significantly to the development of energy-efficient systems for natural gas purification. Also CO2 removal from biogas, with CO2 contents exceeding 40% has more recently known rapid growth and development. Major challenge of polymer membranes for gas separation is related to their susceptibility to plasticization at high CO2 partial pressures. CO2 excessively swells the polymer and eases the permeation of CH4, thus reducing the selectivity. Membrane crosslinking is one of the best ways to prevent the plasticization. Mixed matrix membranes (MMMs), consisting of fillers homogeneously dispersed in a polymeric matrix aim at combining the processibility of polymers and the superior separation properties of the porous fillers. Metal-organic frameworks (MOFs) are such materials which have attracted considerable attention due to their tailorable functionality, well-defined pore size, pore tunability and breathing effects. MMMs for biogas upgrading will be prepared with increased permeabilities by choosing proper MOF/polymer combinations and modifying the thermal treatment, employing core-shell MOF materials with high bulk porosity and a selective shell layer.

Solvent and pH stable membranes with ultra-sharp molecular weight cut-off values

Department: Department of Chemical Engineering, Faculty of Chemical Engineering
Theses supervisor: doc. Ing. Zdeněk Slouka, Ph.D.


Membrane-based separations currently offer the best strategy to decrease energy requirements and environmental footprint through newly developed solvent resistant nanofiltration (SRNF) or solvent-tolerant nanofiltration (STNF). So-called solvent activation of polymeric membranes involves treatment of an existing membrane by contacting it with solvents or solvent mixtures, which is hypothesized to restructure the membrane polymer through solvatation, increase polymer chain flexibility and organization into suitable structures. This will be verified by systematically treating membranes with different solvents and testing them for the separation of synthetic liquid streams. A high-throughput set-up will be used. Fundamental physico-chemical characterisations of the membranes before and after the treatments will provide insight in the changes at molecular level. The characterization techniques include gas and liquid uptake experiments (diffusivity), PALS (positron annihilation lifetime spectroscopy, to determine free volume element distributions), ERD (elastic recoil scattering, providing elemental analysis in membrane depth profiles), solid state NMR (nuclear magnetic resonance), TGA (thermogravimetric analysis) and DSC (differential scanning calorimetry).

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