Muon trigger - CSC and DT
- DT and CSC trigger idea
- DT and CSC cooperation
- CSC trigger - how it works
- CSC - radial or UV strips
- CSC trigger principle
- CSC cluster logic
- CSC local charged track (LCT) logic
- CSC bunch crossing identification
- muon trigger data readout
- CSC plans
- bending angle (d phi) in MF1 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- bending angle (d phi) in MF2 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- bending angle (d phi) in MF3 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- bending angle (d phi) in MF4 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- muon incident angle in MF1 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- muon incident angle in MF2 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- muon incident angle in MF3 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- muon incident angle in MF4 CSC (eta=1.5-1.7-1.9-2.1-2.3-2.5)
- efficiency of various CSC trigger options (eta=2.25)
- efficiency of various CSC trigger options (eta=1.75)
- The problem of CSC ambiguities
- Ways to solve the CSC ambiguities
- Direct CSC-RPC connection
- Solving CSC ambiguities in Track Finder
- Solving CSC ambiguities in Global Trigger
- DT trigger - how it works
- Drift Tube trigger principle
- meantimer measurement - redundancy
- Track Finder - how it works
GW