Electromagnetism for Health Technology

• apply vector analysis (divergence, gradient, curl, the Gauss and Stokes theorems) in electromagnetic problems.
• calculate electrostatic forces, fields, and potentials associated with simple or symmetrical charge distributions.
• calculate magnetic forces, fields, and vector potentials associated with simple or symmetrical current distributions.
• calculate electromagnetic fields in matter with polarization and magnetization.
• determine the electric and magnetic field energy and the associated work and energy flux density.
• calculate induced magnetic and electric fields using the law of induction and displacement currents.
• solve Maxwell’s equations with boundary conditions in problems with more than one material.
• explain the electromagnetic principles of solenoids, and how coils are used in an MRI scanner.
• interpret Maxwell’s equations as a basis for explaining and determining electromagnetic waves in vacuum and in matter.
• explain how electrostatics is used in the design of Micro Electro Mechanical Systems (MEMS) transducers for health technology, e.g., capacitive Micromachined Ultrasonic Transducers (CMUTs).
• explain the electromagnetic principles in optical absorption spectroscopy.
• demonstrate ability to critically assess the output of GenAI for solving electromagnetic problems.

This is a course in Maxwell’s theory of electromagnetism. It involves electrostatics and magnetostatics in vacuum and in matter, magnetic induction, displacement currents, electrodynamics, electromagnetic waves in vacuum and in matter, electromagnetic work, energy and energy flux, AC and DC circuits.

01001/01002/02002/10060/22437

Lectures and problem classes.

Minimum: 25.

Please be aware that this course will only be held if the required minimum number of participants is met. You will be informed 8 days before the start of the course, whether the course will be held.