Project | Description | Contact | Priority | |
---|---|---|---|---|
HDFast (obsolete) | HDFast is the Hall-D parametric simulation program based on MCFast. | Paul Eugenio | eugenio@fsu.edu | 3 |
HDParSim | HDParSim is a parametric simulation that can use either GEANT results or parametric resolution calculations to do quick Monte Carlo studies. A basic framework has been written, but the program still needs a bit of work (1-2 man months) to make it generally useful. | 2 | ||
HDGeant | HDGeant is a GEANT3 based ab initio simulation. | Richard Jones | richard.t.jones@uconn.edu | 1 |
GEANT4 | Geant4 based simulation | 3 | ||
HDDM | Hall-D Data Model. This provides I/O routines for saving and reading data from files. It is used by HDGeant to write data to file and by the Hall-D implementation of the JANA framework to read data in from the file. | Richard Jones | richard.t.jones@uconn.edu | 2 |
HDDS | Hall-D Geometry definition. This package is the definitive source for the GlueX geometry specification as used by HDGeant and HDFast. Geomteries are defined in XML files which the hdds tools then convert into compilable source code. | Richard Jones | richard.t.jones@uconn.edu | 2 |
Geometry access in DANA | This is the C++ class that will be integrated into the JANA framework so that factories may access the geometry information from C++ using a single source (i.e. connection to database, flat file directory, etc...) | David Lawrence Beni Zihlmann Richard Jones |
davidl@jlab.org zihlmann@jlab.org richard.t.jones@uconn.edu |
2 |
Web Portal | Web portal including many web-based resources such as the document database and discussion forums. | Zisis Papandreou | zisis@uregina.ca | 1 |
Wiki Master | Maintain the Wiki. This includes maintaining a level of organization that may require frequently cleaning up or reorganizing the posts of others. | Mark Ito David Lawrence Richard Jones |
marki@jlab.org davidl@jlab.org richard.t.jones@uconn.edu |
1 |
E-logbook | Web-based, database driven electronic logbook for use with GlueX for various beam tests as well as production data. | Elliott Wolin | wolin@jlab.org | 3 |
Make System | Set of generic GNU Makefiles which can be used to build Hall-D libraries and executables. Stored in src/BMS. | David Lawrence Mark Ito |
davidl@jlab.org marki@jlab.org |
1 |
Package/Release management | Produce and maintain software packages needed to run GlueX reconstruction/analysis software. This will include not only GlueX specific software, but any 3rd party packages one may need to have installed. | Pawel Ambrozewicz | pawel@jlab.org | 3 |
Analysis Framework | C++ analysis framework. This forms the basis on which GlueX reconstruction occurs. It provides a means to read in events from serveral different sources, dispatch communication between different reconstruction packages, and output to a single source. | David Lawrence | davidl@jlab.org | 2 |
JLog and JException classes | This will be the mechanism by which JANA factories communicate messages (informational, warning, and error). This will be used instead of cout and cerr directly so more sophisticated logging can be done later (e.g. filtering, notifying alarm servers, etc.). The JException class will be what is thrown when an error condition is detected. It will record as much info as possible about the point in the code where the error occurred. | 2 | ||
JANA->Root | Program to generate ROOT Histograms/Trees from Hall-D's implementation ofJANA. This will be a port of the Hall-A analyzer package so we could use their Output Definition file format. | 2 | ||
Event Viewer | Graphical Event Viewer | 1 | ||
Global Tracking | Global tracking. This will take clusters and segments from the various detector systems and use them to find and then fit tracks. It will require swimming through a detailed magnetic field map. | David Lawrence Simon Taylor Mark Ito |
davidl@jlab.org staylor@jlab.org marki@jlab.org |
1 |
Magnetic Field Map | A C++ class to represent the magnetic field map of the solenoid. This will supply methods to calculate the interpolated (at various resolutions) magnetic field vector at a given point in space. A class will also be needed to help step a charged particle through the field. | David Lawrence Simon Taylor |
davidl@jlab.org staylor@jlab.org |
2 |
EVIO I/O module | I/O module for JANA to read and write EVIO(CODA) format. | David Lawrence Elliott Wolin |
davidl@jlab.org wolin@jlab.org |
3 |
Test suite development | Decide on a set of channels to simulate and produce a standard set of simulated data files. A set of histograms must be defined which can be used to test new reconstruction code. | 2 | ||
Subsystem test suite development | Develop sub-system specific test suites. | 2 | ||
Generate standard histograms | This is different from the Test Suite task. | 1 | ||
Nightly builds | Nightly checkout and building of GlueX software. This includes daily monitoring of the results and either fixing the code or notifying the correct individuals when something is broken. | Mark Ito David Lawrence |
marki@jlab.org davidl@jlab.org |
1 |
PWA/GRID Tools | Tools for doing partial-wave analyses over a widely distributed network. | Matt Shepherd Curtis Meyer Richard Jones |
mashephe@indiana.edu cmeyer@ernest.phys.cmu.edu richard.t.jones@uconn.edu |
2 |
Calibration/Parameters Database | Design a set of database tables and an API so all systems can store and access them in the same way. | Dmitry Romanov | romanov@jlab.org | 2 |
Alignment/Geometry Corrections | Develop a system for cataloging variations from ideal detector geometry. | 3 | ||
Monte Carlo Simulations Database Manager | Setup and maintain a database of physics simulations done for GlueX. This will be crucial for handling the large volume of simulations that will be needed for the PWA of GlueX data. One should look at Richard Jones' OpenShop framework. | 3 | ||
BCAL Reconstruction | Barrel Calorimeter | Zisis Papandreou Matt Shepherd |
zisis@uregina.ca mashephe@indiana.edu |
2 |
BCAL Simulation | Barrel Calorimeter specific simulation studies | Andrei Semenov Blake Leverington |
semenov@jlab.org leverinb@uregina.ca |
2 |
CDC Reconstruction | Central Drift Chambers | David Lawrence Simon Taylor |
davidl@jlab.org staylor@jlab.org |
2 |
Cherenkov Reconstruction | Cherenkov Detector | 2 | ||
FCAL Reconstruction | Forward lead-glass calorimeter | Mihajlo Kornicer Matt Shepherd Richard Jones |
mikornic@indiana.edu mashephe@indiana.edu richard.t.jones@uconn.edu |
2 |
FDC Reconstruction | Forward Drift Chambers | Simon Taylor David Lawrence |
staylor@jlab.org davidl@jlab.org |
2 |
Tagger Simulation | Photon Tagger | Richard Jones Alexander Somov |
richard.t.jones@uconn.edu somov@jlab.org |
2 |
TOF Reconstruction | Time of Flight | Paul Eugenio | eugenio@fsu.edu | 2 |
Trigger Simulation | Trigger system | Alexander Somov | somov@jlab.org | 2 |
Start Counter Simulation | Start Counter | Werner Boeglin Alexander Somov |
boeglinw@fiu.edu somov@jlab.org |
2 |
Background Simulation in GlueX detector | Do simuations to determine background rates (hadronic and electromagnetic throughout the GlueX detector as a function of position. | Matt Shepherd Richard Jones |
mashephe@indiana.edu richard.t.jones@uconn.edu |
1 |
Kinematic Fitting | Matt Shepherd | mashephe@indiana.edu | 3 | |
Particle identification | Develop PID routines | 2 | ||
genr8 | hadronic event generator | Paul Eugenio | eugenio@fsu.edu | 1 |
12 out of 41 tasks (or 29%) are orphans.