Novel NMR methods applied to biochemical systems

Thesis event information

Date and time of the thesis defence

Place of the thesis defence

Auditorium IT116, Linnanmaa Campus

Topic of the dissertation

Novel NMR methods applied to biochemical systems

Doctoral candidate

Master of Science Katja Tolkkinen

Faculty and unit

University of Oulu Graduate School, Faculty of Science, NMR Research Unit

Subject of study

Physics

Opponent

Professor Siegfried Stapf, Ilmenau University of Technology, Germany

Custos

Professor Ville-Veikko Telkki, University of Oulu

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Novel NMR spectroscopy methods to study biochemical systems

In this doctoral thesis, a group of novel NMR spectroscopy methods was developed for the study of biochemical systems. NMR spectroscopy is a technique that allows for the investigation of the structures, interactions, and movements of molecules. It is particularly advantageous for studying biological samples because biomolecules can be investigated under physiological conditions, and since the method relies on the use of radiofrequency radiation, it does not damage the sample being studied at all. Medical magnetic resonance imaging used in hospitals is one of the well-known applications of NMR spectroscopy.

The NMR methods presented in the dissertation provide new tools for studying pore structure of biomaterials. Research on pore structure is important because it is closely related to the progression of degenerative diseases, such as osteoarthritis. In addition, this thesis introduced new rapid relaxation experiments that can be used to study dynamic processes of biomolecules and identify different molecular environments present in the sample. Accelerated methods are highly beneficial in the study of biological samples, as these samples can change or degrade during prolonged measurements. Fast measurement techniques also enable the enhancement of signal of low-concentration substances via hyperpolarization techniques, which can be necessary, for example, in the study of metabolic products.
Last updated: 4.11.2024