CTU FEE Moodle
Magnetism in Engineering Practice
B232 - Summer 23/24
Magnetism in Engineering Practice - XP38MPX
| Credits | 4 |
| Semesters | Winter |
| Completion | Exam |
| Language of teaching | Czech |
| Extent of teaching | 2P+2C |
Annotation
Students will be introduced into the magnetic materials, magnetic sensors and engineering magnetism including FEM design and magnetic measurements and testing. The content of this advanced course can be modified according to the students´ needs.
Study targets
The graduate will be able to design and simulate magnetic circuit, measure its properties, test magnetic materials and magnetic sensors.
Course outlines
1. Advances in magnetic materials 1: permanent magnets, nanocrystalline and amorphous soft magnetic materials
2. Advances in magnetic materials 2: thin films, nanowires, Deposition technologies, annealing
3. Magnetic measurements
4. NMR, ESR and applications
5. superconductivity, SQUID, applications
6. Magnetic sensors
7. FEM design: basics and 2D
8. FEM design: 3D
9. FEM design for AC
10. Superconducting magnetometer and VSM
11. Mössbauer spectroscopy
12. Domains and domain imaging, Kerr microscopy
13. Applications in geophysics, navigation
14. Discussion
2. Advances in magnetic materials 2: thin films, nanowires, Deposition technologies, annealing
3. Magnetic measurements
4. NMR, ESR and applications
5. superconductivity, SQUID, applications
6. Magnetic sensors
7. FEM design: basics and 2D
8. FEM design: 3D
9. FEM design for AC
10. Superconducting magnetometer and VSM
11. Mössbauer spectroscopy
12. Domains and domain imaging, Kerr microscopy
13. Applications in geophysics, navigation
14. Discussion
Exercises outlines
Concentrated sessions and technical visits to magnetic laboratories.
Typical programme:
1. Conventional characterisation techniques: DC
2. SQUID magnetometer
3. Deposition and annealing
4. Fluxgate sensor
5. Calibration techniques
6. FEM design 2D
7. FEM design 3D
8. FEM design 3D: individual work
9. AC measurement techniques
10. Kerr microscopy
11.Field prospection by proton and Overhauser magnetometers
12. Mine locators
13. Field trip to magnetic observatory
14. Reserve
Typical programme:
1. Conventional characterisation techniques: DC
2. SQUID magnetometer
3. Deposition and annealing
4. Fluxgate sensor
5. Calibration techniques
6. FEM design 2D
7. FEM design 3D
8. FEM design 3D: individual work
9. AC measurement techniques
10. Kerr microscopy
11.Field prospection by proton and Overhauser magnetometers
12. Mine locators
13. Field trip to magnetic observatory
14. Reserve
Literature
Obligatory:
1. Jiles, D.: Introduction to Magnetism and Magnetic Materials (3rd edition). CRC 2015
2. Ripka, P. (ed.): Magnetic Sensors and Magnetometers, 2nd edition, Artech, Boston, ISBN 1-58053-057-5, 2021
Recommended:
1. Alex Hubert, Rudolf Schäfer: Magnetic Domains: The Analysis of Magnetic Microstructures, Springer 2014
2. S. Tumanski: Handbook of Magnetic Measurements, CRC 2011
3. F. Fiorillo: Characterization and Measurement of Magnetic Materials, Elsevier 2004
1. Jiles, D.: Introduction to Magnetism and Magnetic Materials (3rd edition). CRC 2015
2. Ripka, P. (ed.): Magnetic Sensors and Magnetometers, 2nd edition, Artech, Boston, ISBN 1-58053-057-5, 2021
Recommended:
1. Alex Hubert, Rudolf Schäfer: Magnetic Domains: The Analysis of Magnetic Microstructures, Springer 2014
2. S. Tumanski: Handbook of Magnetic Measurements, CRC 2011
3. F. Fiorillo: Characterization and Measurement of Magnetic Materials, Elsevier 2004
Requirements
Mathematics and physics on engineering level