English

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Macroscopic approach to Magnetic Resonance.
- Classical description of magnetic moment
- Dynamic of magnetic moment in magnetic fields
- Bloch equations
- Steady state solutions
- Transition phenomena and rapid scan technique
Magnetic spin interactions: their origins and roles
- Electron and nuclear Zeeman interactions
- Electron nuclear hyperfine interactions
- Electron spin dipolar coupling
- Zero Field Splitting
- Quadrupolar coupling
Quantum mechanical description of spin dynamic in MR experiments
- Spin density matrix
- Liouville/ von Neumann Equation vs Schrödinger Equation
- Calculation of observed magnetisation
- Evolution of magnetistion in MR experiments
- Free Induction Decay (FID)
Pulsed MR experiments
- Defocusing and refocusing of total sample magnetisation
- Spin echo. Calculation of spin echo magnitude.
- Spin echo modulations
- Hahn Echo, Stimulated Echo, CPMG, COSY,
- ESEEM, PELDOR, RIDME, DQC, SIFTER
Relaxation in magnetic resonance
- Liouville/ von Neumann equation with relaxation terms
- Relaxation processes
- Relaxation processes regime
- T1 and T2 relaxations
Dynamic Nuclear Polarisation (DNP)
- DNP in solids
- DNP in liquids, Overhauser DNP
- Solomon equations
- Calculation of DNP enhancement

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Aim is to provide students theoretical bases of magnetic resonance spectroscopy

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A. Abragam - Principles of nuclear magnetism
C. P. Poole, H. A. Farach – Theory of Magnetic Resonance
M. H. Levitt - Spin Dynamics
R. Kimmich – NMR: Tomography, Diffusometry , Relaxometry

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