Unit 1: Course introduction

• Paolo Ferracin

Unit 2: Main magnet specifications in circular accelerators

• ezio TODESCO (CERN)

Exercise set 1

• ezio TODESCO (CERN)

Unit 3: Field harmonics and specification of correctors

• ezio TODESCO (CERN)

Unit 4: Magnetic design 1: How to create perfect fields with current lines

• ezio TODESCO (CERN)

Exercise set 2

• ezio TODESCO (CERN)

Unit 5: Basics of superconductivity and applications I

• Maxim Martchevskii

Unit 6: Basics of superconductivity and applications II

• Maxim Martchevskii

Exercise set 3

• Maxim Martchevskii

Unit 7: Magnetic design 2: Short sample field, margins and sensitivities

• ezio TODESCO (CERN)

Unit 8: Magnetic design 3: Iron effect, grading techniques, and two-in-one dipoles

• ezio TODESCO (CERN)

Exercise set 4

• ezio TODESCO (CERN)

Unit 9: Practical superconductors for accelerator magnets I

• Paolo Ferracin

Unit 10: Practical superconductors for accelerator magnets II

• Paolo Ferracin

Exercise set 5

• Paolo Ferracin

Unit 11: Protection of superconducting accelerator magnets

• Maxim Martchevskii

Unit 12: AC losses in superconductors

• Maxim Martchevskii

Exercise set 6

• Maxim Martchevskii

Unit 13: Lorentz forces and stresses in superconducting accelerator magnets I

• Paolo Ferracin

Unit 14: Lorentz forces and stresses in superconducting accelerator magnets I

• Paolo Ferracin

Exercise set 7

• Paolo Ferracin

Unit 15: Construction methods and support structures I

• Paolo Ferracin

Unit 16: Construction methods and support structures II

• Paolo Ferracin

Exercise set 8

• Paolo Ferracin

Unit 17: Degradation and training I

• Paolo Ferracin

Unit 18: Degradation and training II

• Paolo Ferracin

Exercise set 9

• Paolo Ferracin

Unit 19: Diagnostic and instrumentation I

• Maxim Martchevskii

Unit 20: Diagnostic and instrumentation II

• Maxim Martchevskii

Close-out

• Paolo Ferracin