About CEITEC
Do you know…
- … the scientists in CEITEC will be researching what happens in the brain when a human has realized that they have made a mistake?
- … there will be nearly 800 scientists in CEITEC?
- … in CEITEC we will be researching how the brain works and why some people are motivated and others are not?
- … thanks to CEITEC most of the diagnostic methods will be cheaper, faster and more comfortable for the patients?
- … 63 research teams will be created in CEITEC?
- … there will be 7 research programmes in CEITEC?
- … there will be more than 1,000 modern instruments in CEITEC?
- … more than 31,000 m2 of new infrastructure will be built in CEITEC?
- … more than 1,500 students will use the CEITEC infrastructure per year?
- … there will be 10 shared laboratories created in CEITEC?
- … CEITEC has 6 partners?
- … work will be carried out on self-cleaning surfaces in CEITEC?
- … CEITEC will co-operate closely with the industrial sector?
- … there will also be international scientists working in CEITEC?
- … CEITEC will support the international mobility of scientists?
- … the scientists in CEITEC are developing a subdermal chip which will analyse some life functions and will inform doctors from a distance?
- … the scientists in CEITEC are working on the development of a device which will enable physiotherapy from a distance?
- … the scientists at CEITEC are working on the development of biosensors?
- … CEITEC will be created in the south-Moravian city of Brno?
Single Crystal X-ray Diffraction
Head: Doc. RNDr. Jaromír Marek, Ph.D.
Main Activity
Diffraction experiments with single crystal samples focused on determining the 3-D structure of (macro)molecules down to atomic resolution. Range of applicable molecular mass: from 102 up to 106, where the lower value covers molecules significant for nanotechnology, material science or pharmacology and upper limit covers biomacromolecules such nucleic acids, proteins and their complexes. Automated screening of crystallization conditions, optimisation of protein crystals growth.
Unique Features
The diffraction of X-rays in single crystal samples is the most important and – if an appropriate sample is available- also the fastest methodology currently available for the determination of atomic structures of molecules and/or macromolecules and their complexes. The Faculty of Science at Masaryk University has almost 20 years of experience with the diffraction laboratory focussed on small molecules. The new Core Facility is a coherent extension to new, macromolecular and biological studies of subjects with higher molecular masses. The bottleneck in diffraction techniques – time consuming preparation of protein crystals – will be overcome using a highly automated high throughput infrastructure for protein growth preparation, monitoring, and analysis. Centralised organisation of this instrumentation allows cost-effective use of resources and the exploitation of results even for untrained users.
Key Equipment (Core Facility fully operational from 2014)
- Macromolecular single crystal diffraction system
- Universal chemical and protein diffractometer and X-ray and optical protein scanner
- Automated crystallisation laboratory – liquid handling
- Automated crystallisation laboratory – sample storage and inspection




