Skip to content

TRUST is a thermohydraulic software package for CFD simulations. It was originally designed for incompressible single-phase and Low Mach Number flows, but now also allows simulating real compressible multi-phase flows. TRUST is also being progressively ported to support GPU acceleration (NVidia/AMD). This software is OpenSource (BSD license).

License

Notifications You must be signed in to change notification settings

alexandre2946/trust-code

 
 

Repository files navigation

TRUST

TRUST is a thermalhydraulic software package for CFD simulations. It was originally designed for incompressible single-phase and Low Mach Number flows, but now also allows simulating real compressible multi-phase flows. TRUST is also being progressively ported to support GPU acceleration (NVidia/AMD).

This software is OpenSource (BSD license).

You can visit TRUST website

How to install TRUST-1.9.6 version ?

First method (git configuration)

# Check out the sources for TRUST git clone https://github.com/cea-trust-platform/trust-code.git TRUST-1.9.6 # Move to the cloned TRUST folder cd TRUST-1.9.6 # Download the required external packages wget ftp://ftp.cea.fr/pub/TRUST/externalpackages/externalpackages-1.9.6.tar # or: # curl ftp://ftp.cea.fr/pub/TRUST/externalpackages/externalpackages-1.9.6.tar > externalpackages-1.9.6.tar # or: # wget "https://drive.usercontent.google.com/download?id=1LAbrUO0at7eN_nwg28F92SF4SS_Qw4K5&export=download&authuser=4&confirm=t" -O externalpackages-1.9.6.tar # Unzip the downloaded external packages folder tar xf externalpackages-1.9.6.tar # Have a look at the available configuration options ./configure -help # Execute the configure script with your selected options # At the end of configure, file env/machine.env will be created.  # You can then edit it and some others (env/make.linux*) to change some default values. ./configure $OPTIONS

Warning: Check carefully the MPI version you want to use for parallel computing before installing the code, especially onto a HPC cluster.

Run the following command, mpicxx should be found into the bin directory of the MPI version you plan to use

type mpicxx

Second method (download a tar.gz)

# Download the sources for TRUST wget ftp://ftp.cea.fr/pub/TRUST/TRUST/Version1.9.6/TRUST-1.9.6.tar.gz # or: # curl ftp://ftp.cea.fr/pub/TRUST/TRUST/Version1.9.6/TRUST-1.9.6.tar.gz > TRUST-1.9.6.tar.gz # Unzip the downloaded folder tar xzf TRUST-1.9.6.tar.gz # Move to the unziped TRUST folder cd TRUST-1.9.6 # Execute the configure script with your selected options ./configure $OPTIONS

How to install TRUST development version ?

For developers and those interested in new features only.

Warning: "next" branch may not compile or some tests fail if important developments merged...

# Check out the sources for TRUST git clone git@github.com:cea-trust-platform/trust-code.git TRUST-next # Move to the cloned TRUST folder cd TRUST-next # Checkout the developement TRUST branch git checkout next # Download the requested external packages wget ftp://ftp.cea.fr/pub/TRUST/externalpackages/externalpackages-next.tar # or: # curl ftp://ftp.cea.fr/pub/TRUST/externalpackages/externalpackages-next.tar > externalpackages-next.tar # Unzip the downloaded packages tar xf externalpackages-next.tar # Execute the configure script with your selected options ./configure $OPTIONS 

How to start ?

  • Initializing TRUST environment
# To initialize TRUST environment source ./env_TRUST.sh # To initialize the TRUST python's environment (MEDCoupling, swig and ICoCo python) (TRUST should be built) source ./env_for_python.sh
  • Building TRUST sources / libraries / tools
# To build TRUST as a user application (optimized mode only) make optim # To build TRUST as a developer (optimized + debug modes) make
  • Useful TRUST env variables
# To go to the TRUST root directory from any location (supposing that TRUST is initialized) cd $TRUST_ROOT # To go to the TRUST tests directory from any location (supposing that TRUST is initialized) cd $TRUST_TESTS
  • Testing TRUST
# To check TRUST in a parallel way (more than one test case at a time) make ctest_optim # To check TRUST in a sequential way (one test case at a time) make check
  • Cleaning TRUST
# To clean (will delete all .o and .a of TRUST sources, inside directories or MonoDir_... directories) make clean #To clean TRUST's third party libraries ./configure -clean
  • TRUST documentation
# To see TRUST's documentation trust -index

You are also invited to visit the TRUST Doxygen documentation which is available here.

Quick directories description

  • TRUST scripts => bin/

  • Documentation files => doc/

  • Environment files => env_src/ & env/

  • Binaries => exec/

  • Link to all TRUST include files (automatically updated) => include/

  • Libraries => ThirdPart/ & lib/

  • TRUST sources => src/

  • TRUST tests => tests/

  • Tools to build TRUST => Outils/

  • Location of Validation forms => Validation/

Quick files description

  • README.md=> This file

  • env_TRUST.sh=> Script loading TRUST environment

  • env_for_python.sh=> TRUST python tools initialization script

  • RELEASE_NOTES=> Release notes (manually and regulary updated by support)

  • DEVELOPER_NOTES=> Developer notes (manually and regulary updated by support)

  • Makefile=> List of targets to build the code

  • ToDo=> List of tasks to do

  • configure=> configure script

  • index.html=> Index description (gives access to documentation, tutorials, ...)

  • license=> TRUST and third party licences

Thermo-Physical Properties interface

TRUST offers a generic interface that can be used to calculate thermo-physical properties (useful for multi-phase flows). For that, two external libraries can be used:

CoolProp

CoolProp is an open source (MIT License) library useful to compute thermo-physical properties for the masses.

A pre-compiled static library of CoolProp is mandatory if a TRUST user wants to use its interface via TRUST. Warning: On a cluster, if you want to install TRUST with CoolProp, you should install both with the same compilers. Here are the steps that can be followed to obtain a libcoolprop.a

# Get the sources archive (version 6.6.0) wget https://sourceforge.net/projects/coolprop/files/CoolProp/6.6.0/source/CoolProp_sources.zip unzip CoolProp_sources.zip mv source CoolProp # or download CoolProp (attention recursive, beta version that may have issues with TRUST !!!) git clone https://github.com/CoolProp/CoolProp --recursive # Move into the folder you just created cd CoolProp # Make a build folder mkdir -p build && cd build # Build the makefile using CMake cmake .. -DCOOLPROP_STATIC_LIBRARY=ON -DCOOLPROP_FPIC=ON # Make the static library cmake --build . # Instead, you can do : make -j all ...

Once done, you need to configure TRUST with the following (maybe additional) option

./configure $OPTIONS -with-coolprop=YOUR_PATH_COOLPROP make

This configure with make it also possible to access CoolProp via a python module. You can try it

source env_TRUST.sh python from CoolProp.CoolProp import PropsSI

ATTENTION: YOUR_PATH_COOLPROP is the path towards the cloned CoolProp repository and not the build. It is recommended to verify first that the folder include exists in YOUR_PATH_COOLPROP and that the library libCoolProp.a exists in YOUR_PATH_COOLPROP/build.

Note: It is possible to call REFPROP via the TRUST CoolProp interface. However, this requires a license and a well built shared library of REFPROP. In this case, you need to configure TRUST with the following (maybe additional) option

./configure $OPTIONS -with-refprop=YOUR_PATH_REFPROP make

Here, YOUR_PATH_REFPROP is the path towards the shared library of REFPROP.

About

TRUST is a thermohydraulic software package for CFD simulations. It was originally designed for incompressible single-phase and Low Mach Number flows, but now also allows simulating real compressible multi-phase flows. TRUST is also being progressively ported to support GPU acceleration (NVidia/AMD). This software is OpenSource (BSD license).

Resources

License

Stars

Watchers

Forks

Releases

No releases published

Packages

No packages published

Languages

  • C++ 53.3%
  • GLSL 25.1%
  • Shell 7.2%
  • Python 3.6%
  • Jupyter Notebook 3.4%
  • Fortran 2.0%
  • Other 5.4%