Course detail
Fundamentals of Magnetic Resonance
CEITEC VUT-DS125AAcad. year: 2020/2021
Not applicable.
Language of instruction
English
Mode of study
Not applicable.
Guarantor
Learning outcomes of the course unit
Not applicable.
Prerequisites
Not applicable.
Co-requisites
Not applicable.
Planned learning activities and teaching methods
Not applicable.
Assesment methods and criteria linked to learning outcomes
Not applicable.
Course curriculum
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
- 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
Work placements
Not applicable.
Aims
Aim is to provide students theoretical bases of magnetic resonance spectroscopy
Specification of controlled education, way of implementation and compensation for absences
Not applicable.
Recommended optional programme components
Not applicable.
Prerequisites and corequisites
Not applicable.
Basic literature
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
C. P. Poole, H. A. Farach – Theory of Magnetic Resonance
M. H. Levitt - Spin Dynamics
R. Kimmich – NMR: Tomography, Diffusometry , Relaxometry
Recommended reading
Not applicable.