Learning Outcomes
Having successfully completed this course, students will be able to:
- Understand the fundamental principles of magnetism in matter.
- Be able to identify the types of magnetic materials and their basic properties across all scales of matter.
- Interpret how the magnetic properties of matter are influenced by its structure and composition.
- Connect advanced properties of magnetic materials (magneto-optical, magneto-mechanical, magneto-electrical) with their use in modern technological applications.
- Be capable of proposing magnetic materials suitable for contemporary technological and biomedical applications and devices.
Course Content (Syllabus)
- Historical background, fundamental concepts of magnetism and magnetic phenomena in materials
- Hysteresis loop, Curie temperature, cohesive field, anisotropy, susceptibility, types of magnetic order.
- Magnetic dipole moment, magnetic fields B and H, demagnetizing field. Magnetostatic energy.
- Μolecular field theory, exchange interactions. Antiferromagnetism and ferrimagnetism.
- Micromagnetic energy, theory of magnetic domains, reversal, pinning and nucleation, Stoner-Wohlfarth model.
- Soft magnetic materials and applications.
- Hard magnetic materials and permanent magnets, applications, global market and economic data. Geopolitical issues.
- Ferromagnetic phenomena. Magnetostriction, magnetocaloric effect, magneto-optical effects.
- Magnetism at the nanoscale and magnetic devices.
- Μagnetic transport phenomena. Magnetoresistance, spintronics, magnonics.
- Magnetic recording.
- Magnetism in biology and medicine.
- Sensors and multiferroics.