Morning
09:00 - 12:30 | Welcome
by Shin-ichi Kurokawa Opening Remarks
by Weiren Chou Lecture 1 - Introduction I (90) Fumihiko Takasaki (KEK) - Why LC
- What's ILC
- Layout of ILC
- Overview of issues
Lecture 2 - Introduction II (90) Tor Raubenheimer (SLAC) - Parameter choices & optimization
| Lecture 5 - Damping ring basics (180) Susanna Guiducci (INFN-LNF) - Betatron motion
- Synchrotron motion
- Beam energy
- Beam emittance
- Radiation damping
- Intrabeam scattering
| Lecture 7 – ILC Linac basics (90) Chris Adolphsen (SLAC) - Linac basic principles
- SW linacs and structures
- SRF parameter constraints
- Beam loading and coupling
- Lorentz force detuning
Lecture 8 - ILC Linac beam dynamics (90) Kiyoshi Kubo (KEK) - Lattice layout
- Beam quality preservation
- RF field stability
- Wakefield and dampers
- HOMs
- Alignment tolerances
- Vibration problems
- Beam based alignment
| Lecture 9 - High power RF (60) Stefan Choroba (DESY) - RF system overview
- Modulators
- Klystrons
- RF distribution
Lecture 10 - SRF basics (120) Shuichi Noguchi (KEK) - Superconductivity basics
- SRF peculiarities
- Cavity design criteria
- Various constraints
- ILC BCD Cavity
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Afternoon
14:00 - 17:30 | Lecture 3 - Sources (120) Masao Kuriki (KEK) - e- gun
- e+ sources
- Polarized sources
Lecture 4 - Bunch compressors (60) Eun-San Kim (Kyungpook National University) - Bunch compressors
- Spin rotator
| Lecture 6 - Damping ring design (180) Andy Wolski (University of Liverpool) - Options
- Lattice
- Parameter optimization
- Machine acceptance
- E-cloud, space charge and instability issues
- Wigglers
- Kickers and other technical systems
| Field trip to Kamakura | Lecture 11 - SRF cavity technology (180) Peter Kneisel (Jlab) - Material issues
- Cavity fabrication and tuning
- Surface preparation
- Gradient limit and spread
- Power Coupler
- HOM Couplers
- Slow and fast tuner
- Path to ILC
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