1.3 The Challenges of Analyzing LAT Data
1.5 The Process of Defining the Standard Analysis Environment
1.6 Scope of the analysis environment
2 Components of the analysis environment
2.1 Event data, pointing & livetime history, and response functions
2.5 Point source catalog, astronomical catalogs, and source identification
2.11 Summary of the standard analysis environment
3.1.1 The command line interface
3.2.2 Software Distribution Plans
4.1 Determine the Average Spectrum of 3C 273 For a Particular One-Month Period
4.2 Determine the Light Curve of 3C 273 For a Particular One-Month Period
4.3 Study Gamma-Ray Emission From a Pulsar
4.4 Binned GRB Spectral Analysis
4.5 Binned GRB Temporal Analysis
4.6 Unbinned Burst Spectral Analysis
4.8 Multimission Point Source Analysis
4.9 Observation Simlations for Evaluating Prospective Observations
5.4 Code Package Development and Hierarchy
6.3 End-to-end Tests and Mock Data Challenges
7.3 Resources required vs. available (over time)
Appendix BSchedule for development of the Standard Analysis Environment
Appendix CDetailed Tool Descriptions
D1. Event summary (Level 1) database
D2. Pointing, livetime, and mode history
D3. Instrument response functions
D6. Other high-level databases
U2. User-Level Data Extraction Tool
U3. Pointing/livetime history extractor
U5. Interstellar emission model
U7. Source model definition tool
U10. Photon arrival time converter
U11. Pulsar ephemeris extractor
U14. LAT GRB DRM generator for binned count spectra
A3. Pulsar profile & periodicity tests
A8. GRB binned spectral analysis
A9. GRB spectral analysis tool for unbinned energy
A10. Spectral-temporal GRB physical modeling
O1. Livetime/pointing simulator
O2. High-level observation simulator
UI4. Command-line interface and scripting
UI5. GUI interface and Web access