Difference between revisions of "Reconstruction Tasks and Topics for Further Development"

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# Particle identification
 
# Particle identification
 +
## What is the general scheme (or schemes) that we want to support?
 +
## What is the nature of the user interface into particle ID information?
 
# &chi;<sup>2</sup> distributions from track fits
 
# &chi;<sup>2</sup> distributions from track fits
 +
## What are the main causes of tracks in the zero probability peak?
 +
## Are hit reconstruction errors calculated correctly? Consistently?
 
# Re-do checks of error matrices from photon reconstruction
 
# Re-do checks of error matrices from photon reconstruction
 
# When photons get split into multiple clusters, is all of the energy detected?
 
# When photons get split into multiple clusters, is all of the energy detected?
 
# How do we handle large single Coulomb scattering in tracking?
 
# How do we handle large single Coulomb scattering in tracking?
 
# How do we handle decays in tracking?
 
# How do we handle decays in tracking?
# What is our efficiency for &pi;<sup>0</sup> detection? &eta;&arrow;&gamma;&gamma;?
+
# What is our efficiency for &pi;<sup>0</sup> detection? &eta;&rarr;&gamma;&gamma;?

Revision as of 14:54, 30 August 2011

The items listed here are areas that we have identified as needing further development and/or study. Feel free to add your topics or comment on those already listed. Comments can be entered on the "discussion" tab (see above).

  1. Particle identification
    1. What is the general scheme (or schemes) that we want to support?
    2. What is the nature of the user interface into particle ID information?
  2. χ2 distributions from track fits
    1. What are the main causes of tracks in the zero probability peak?
    2. Are hit reconstruction errors calculated correctly? Consistently?
  3. Re-do checks of error matrices from photon reconstruction
  4. When photons get split into multiple clusters, is all of the energy detected?
  5. How do we handle large single Coulomb scattering in tracking?
  6. How do we handle decays in tracking?
  7. What is our efficiency for π0 detection? η→γγ?