Individual Experimental Project 390-FS2-2IPD
The aim of this course is to understand the physical foundations of electron paramagnetic resonance and ferromagnetic resonance. After familiarizing themselves with the electron paramagnetic resonance measurement setup, students independently measure ferromagnetic resonance spectra, measuring the dependence of microwave absorption as a function of the magnetic field H, for a selected series of thin magnetic layers of cobalt surrounded by platinum, rhenium, or tungsten. Students determine the dependence of the resonance fields and FMR linewidth as a function of the angle between the magnetic field and the surface of the tested sample. From the angular dependence of the resonance field, they determine the magnetic anisotropy field.
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Term 2024:
1. Understanding the basics of paramagnetic resonance in classical and quantum descriptions. |
Term 2025:
1. Understanding the basics of paramagnetic resonance in classical and quantum descriptions. |
Type of course
Requirements
Prerequisites
Prerequisites (description)
Course coordinators
Learning outcomes
KP7_WG1 Demonstrate in-depth understanding of mathematical concepts essential for physics and astronomy within the scope of the curriculum.
KP7_UW2 Select and apply research tools appropriate for a given field of physics.
KP7_UW3 Quantitatively and qualitatively explain the course of complex phenomena based on the laws of physics.
KP7_UK2 Obtain information and assess its credibility, interpret it, draw conclusions based on it, and formulate opinions.
KP7_U01 Plan and conduct research in a selected field of physics and astronomy, selecting appropriate research tools within the scope of the curriculum.
KP7_KK2 Critically evaluate one's knowledge by tackling real-world research and applied problems in a selected field of physics.
Assessment criteria
Conducting the experiment, processing the data, analyzing measurement uncertainty, discussing the results, and preparing a report.
We use the following grading scale to assess learning outcomes:
Very good 5 (100% - 91%
Good plus - 4.5 (90% - 81%)
Good 4 - (80% - 71%)
Satisfactory plus - 3.5 (70% - 61%)
Satisfactory 3 - (60% - 51%)
Bibliography
1. A. Oleś, Experimental methods of solid state physics, WNT Warsaw 1998.
2. The instruction next to the experimental setup.
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Term 2024:
1. A. Oleś, Experimental Methods of Solid State Physics, WNT Warsaw 1998. |
Additional information
Additional information (registration calendar, class conductors, localization and schedules of classes), might be available in the USOSweb system: