**Module IV - Hyperpolarization**

Lecture 01 - Simulation of solid state DNP experiments (by Ilya Kuprov)

Lecture 02 - DNP experiments and hardware (by Ilya Kuprov)

Lecture 03 - Parahydrogen-induced spin polarization

Lecture 04 - Spin-selective chemical reactions

**Module V - Solid state NMR**

Lecture 01 - Spin interactions (by Malcolm Levitt)

Lecture 02 - Spherical tensors (by Malcolm Levitt)

Lecture 03 - Spherical tensors (by Malcolm Levitt)

Lecture 04 - Rotating frame approximation (by Malcolm Levitt)

Lecture 05 - Average Hamiltonian theory (by Marina Carravetta)

Lecture 06 - Polarization transfer and recoupling (by Marina Carravetta)

Lecture 07 - Decoupling and recoupling

Lecture 08 - NMR of quadrupolar solids

**Module VI - Advanced topics**

Lecture 01 - Generalized cumulant expansion (by Ilya Kuprov)

Lecture 02 - Stochastic Liouville equation (by Ilya Kuprov)

Lecture 03 - Spin relaxation in solid state (by Ilya Kuprov)

Lecture 04 - Lindblad superoperators (by Ilya Kuprov)

Lecture 05 - Nuclear quadrupolar interaction (by Ilya Kuprov)

Lecture 06 - Introduction to optimal control theory, part I (by Ilya Kuprov)

Lecture 07 - Introduction to optimal control theory, part II (by Ilya Kuprov)

Lecture 08 - Chemical kinetics in spin systems

Lecture 09 - Average Hamiltonian theories

Lecture 10 - Restricted state spaces

Lecture 11 - Pulsed field gradients

**Module VII - Electron Spin Resonance**

Lecture 01 - Spin dynamics in ESR systems

Lecture 02 - Introduction to ESR hardware

Lecture 03 - Two-electron dipolar spectroscopy

Lecture 04 - Applications of ESR spectroscopy