Changes between Version 12 and Version 13 of SFS


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Timestamp:
Jun 18, 2020, 11:08:19 AM (5 years ago)
Author:
jackaraz
Comment:

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  • SFS

    v12 v13  
    22== Simplified - Fast Simulation (SFS) of detector response ==
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    4 This page contains a brief introduction about the usage of SFS machinery, for details, please see [CITE]. SFS machinery allows the user to simulate detector response within !MadAnalysis 5 framework using only !FastJet libraries. SFS uses transfer functions on reconstructed objects to simulate detector response. It is, also, fully integrated with [http://madanalysis.irmp.ucl.ac.be/wiki/PublicAnalysisDatabase Public Analysis Database], and the user can recast experimental analyses using SFS' fast interface, for details, please see [https://madanalysis.irmp.ucl.ac.be/wiki/SFS#LHCRecastingwithSFS below]. Although we provide default [https://madanalysis.irmp.ucl.ac.be/raw-attachment/wiki/SFS/ATLAS_default.ma5 ATLAS] and [https://madanalysis.irmp.ucl.ac.be/raw-attachment/wiki/SFS/CMS_default.ma5 CMS] cards which are validated against corresponding Delphes cards for four different physics process, this introduction will provide all information that is needed to use SFS machinery for any homebrew detector simulation.
     4This page contains a brief introduction about the usage of SFS machinery, for details, please see [https://arxiv.org/abs/2006.09387 arXiv:2006.09387]. SFS machinery allows the user to simulate detector response within !MadAnalysis 5 framework using only !FastJet libraries. SFS uses transfer functions on reconstructed objects to simulate detector response. It is, also, fully integrated with [http://madanalysis.irmp.ucl.ac.be/wiki/PublicAnalysisDatabase Public Analysis Database], and the user can recast experimental analyses using SFS' fast interface, for details, please see [https://madanalysis.irmp.ucl.ac.be/wiki/SFS#LHCRecastingwithSFS below]. Although we provide default [https://madanalysis.irmp.ucl.ac.be/raw-attachment/wiki/SFS/ATLAS_default.ma5 ATLAS] and [https://madanalysis.irmp.ucl.ac.be/raw-attachment/wiki/SFS/CMS_default.ma5 CMS] cards which are validated against corresponding Delphes cards for four different physics process, this introduction will provide all information that is needed to use SFS machinery for any homebrew detector simulation.
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    66* Prerequisites: !FastJet
    … …  
    6464}}}
    6565
    66 where `<true>` stands for the true object that will be reconstructed as `<reco>` object. If `<true>` and `<reco>` objects are same, the module will apply efficiency to reconstruct the given object. If, on the other hand, the `<true>` and `<reco>` objects are different, the module will apply misidentification efficiency on the `<true>` object. This submodule can be used on jets (`j`, `21`), b-jets (`b`, `5`), c-jets (`c`, `4`), electrons (`e`, `11`), muons (`mu`, `13`), hadronic taus (`ta`, `15`) or photons (`a`, `22`) where within certain physical limitations each object can be reconstructed as other objects, please see [CITE] for the available options. It is important to note that `<true>` and `<reco>` are separated by the keyword `as`.
     66where `<true>` stands for the true object that will be reconstructed as `<reco>` object. If `<true>` and `<reco>` objects are same, the module will apply efficiency to reconstruct the given object. If, on the other hand, the `<true>` and `<reco>` objects are different, the module will apply misidentification efficiency on the `<true>` object. This submodule can be used on jets (`j`, `21`), b-jets (`b`, `5`), c-jets (`c`, `4`), electrons (`e`, `11`), muons (`mu`, `13`), hadronic taus (`ta`, `15`) or photons (`a`, `22`) where within certain physical limitations each object can be reconstructed as other objects, please see [https://arxiv.org/abs/2006.09387 arXiv:2006.09387] for the available options. It is important to note that `<true>` and `<reco>` are separated by the keyword `as`.
    6767
    6868* Example: