Jet propagation (currently done using an unofficial modification of JEWEL) in realistic viscous hydrodynamics modeled using vUSPhydro
Disclaimers:
- Send an email to leonardo.barreto.campos@usp.br for compatible medium profiles. Files are large and we are developing an easier way to distribute them.
- LHAPDF 6 and desired PDF sets.
- JEWEL 2.4.0 source code.
Although is not necessary, we recommend having a working version of JEWEL 2.4.0 installed, as most of the instructions for installing the presented modification overlaps with the original one.
- Clone this repository and add the following original JEWEL
meix.f
andpythia6425mod-lhapdf6.f
files to the repo directory, as we do not distribute those,
git clone git@github.com:leo-barreto/USP-JEWEL.git
cp -t USP-JEWEL path/jewel-x.y.z/meix.f path/jewel-x.y.z/pythia6425mod-lhapdf6.f
-
Edit the
LHAPDF_PATH :=
line inMakefile
to set your LHAPDF library path (e.g.path/lhapdf/lib
). -
Compile USP-JEWEL
cd USP-JEWEL
make
- Make sure to setup LHAPDF environment paths (just like JEWEL installation)
export LD_LIBRARY_PATH=$LD_LIBRARY_PATH:/path/lhapdf/lib
export LHAPATH=/path/lhapdf/share/lhapdf
Let's see if everything is setup correctly by running an example. The folder example/
has parameters files for the JEWEL (params_example.dat
and the medium medium_params_example.dat
(similar to original JEWEL), and a TReNTo+vUSPhydro PbPb 0-10% 5.02 TeV medium profile. The file is rather large so be sure to decompress it (should be .dat file!) before usage.
For this test, a nuclear PDF must be provided by LHAPDF, e.g. EPPS21nlo_CT18Anlo_Pb208 (referenced by the parameter PDFSET 904400
in params_example.dat
). It can be obtained from here and the test will work for any other PDF set as long as the parameter file is modified accordingly.
cd example/
unxz 0-10_example.dat.xz
.././usp-jewel params_example.dat
After the execution is completed, the expected outputs are out.log
, logging multiple events, and the final-particle distribution out.hepmc
. And it is done! You now can simulate JEWEL parton shower evolution in realistic 2+1D hydrodynamic profiles!