CHEMICAL PROCESSES AND BIOMATERIALS
- Thermo-chemical functionalization of surfaces
- Bioactive nanoparticles and nanolayers
- Porous biocompatible glasses and glass-ceramics
- Responsive hydrogels for biomedical applications
- Super-absorbent hydrogels and polymer nanocomposites
- Development and characterization of a prototype of a stationary unit of a fuel cell bundle
- Study of electrochemical processes
- Description of thermodynamic states
- Measurement of catalytic and diffusion layer degradation
- Laboratory of thermal analysis: TGA, DMA, TMA, DSC, DTA
- Laser chemistry laboratory: Nd-YAG laser, annealing furnaces, sample press, high-temperature furnace.
- Chemical laboratory: mechanical ultra-dispersing units, vibrating table, ultra-sonicator, sterilizer, precision laboratory scales, dryer, precision metallographic saw.
- Fuel Cell Laboratory: Greenlight G20 test stand for regulating flow, pressure, humidity, and other fuel cell test parameters.
- Rheometer: ARES-G2
- DMA with moisture cell
- Particle size and distribution analyzer: SLS, DLS
- Chemical analyzer: WDXRF
- Low-angle X-ray scattering: SAXS / WAXS
- Universal tearing machine
- SEA inverse chromatograph
- Water vapor sorption DVS
The offer of the CPB department
- Description of thermal and thermomechanical properties of materials.
- Description of visco-elastic properties of materials.
- Determination of chemical properties of solid, bulk and liquid samples.
- Characterization of surface and sorption properties of solid and powder materials
medicine (hydrogels, inorganic porous carriers, nano-biomaterials), environmental technology (fuel cells, membranes, filtration, eco-nanocatalysts), construction (mechanical and thermal properties of inorganic binders)
Current, selected projects - CPB
"MATEGRA - Advanced porous biomaterials functionalized with stem cells to improve the osseointegration of implants".
The project focuses on the development, optimization, and testing of new types of biocompatible surfaces in titanium implants to improve osseointegration and adhesion of bone tissue. The aim is also to connect research institutions, expert groups and transfer knowledge in the development and testing of new porous biomaterials.
„OSTEOMET: Augmented treatment of osteoporotic bones with innovative metal surfaces enriched with organic-inorganic nanoparticles.
The project addresses an important and highly translational topic: the clinically relevant field of osteoporosis. Osteoporosis is a systemic skeletal disease, in affected patients, it manifests itself in a deteriorated structure of bone tissue with insufficient properties. The phenotype of osteoporotic cells should be suppressed by functionalizing the metal implant with the an / organic composition of nanoparticles. By including vascular and immune cells, it will be possible to make a more accurate and comprehensive evaluation of cell-implant interface responses. The results of this research bring the potential to improve treatment after implant placement, which is also suitable for previously damaged and osteoporotic bones and which strengthens the regeneration of the surrounding bone tissue. University Hospital Regensburg Department of Trauma Surgery (UKR) and New Technologies - Research Center (NTC) at the University of West Bohemia in Pilsen form a joint research platform. The project partner is the University Hospital Regensburg.
Duration: 01.06.2021 - 31.12.2022
Provider: EUROPEAN COMMISSION-Structural Funds