• Without hdf5 support:
  cd Version5_evxxx/Donjon/ make
• With hdf5 support:
  cd Version5_evxxx/Donjon/ make hdf5=1

However, the development of Dragon Version5 is made with modern quality assurance (QA) traceability techniques. This traceability goal is achieved through the application of versioning control (using Subversion) and issue tracking systems to the following project components:

• Ansi-C and Fortran sources of the Version5 components
• Non-regression tests
• Software documentation

In Dragon 3.0x:
LINK_LIST LIBRARY TRACK GEOM ;
...
UTL: LIBRARY :: STEP UP MACROLIB ;
TRACK := BIVACA: GEOM LIBRARY ;
UTL: LIBRARY :: STEP DOWN ;


In Dragon Version5:
LINK_LIST MACRO LIBRARY TRACK GEOM ;
...
MACRO := LIBRARY :: STEP UP MACROLIB ;
TRACK := BIVACA: GEOM MACRO ;


Also, a few modules, such as JPMT:, SAD:, PER: and MCU: are not available in Dragon Version5. The capabilities of modules EXCELL: and MOCC: have been integrated in ASM: and FLU:, respectively.

• A native build is possible, provided that Microsoft Visual Studio and Intel Visual Fortran are available. A script named instver5.bat is available to create executables (.exe) from a MS-DOS command window, but is not actively maintained. Follow the following steps:
  • Click Start, point to All Programs, Intel(R) Software Development Tools, Intel(R) Visual Fortran Compiler Professional and finally Fortran Build Environment for applications running on IA-32. The Visual Studio Command Prompt automatically sets the correct paths of both C and Fortran compilers, together with their associated libraries.
  • In the command window, type
    cd %homepath%\Version5\
.\script\instver5
• A "Unix-type" build is possible, provided that Windows Subsystem for Linux (WSL) is properly installed on your PC. WSL is a native implementation of a Unix shell. After installation of WSL, you obtain a native Unix terminal window where all Version5 components can be executed.

A tutorial is available to explain the installation procedure on a Mac.

• Construct a complete build using only 64-bit libraries (i.e., without using -m32 flag). This characteristics is important as some Linux distributions are installed without 32-bit C and Fortran libraries.
• Use MPI standard libraries
• Make Salome couplings using YACS
• Use the optimiser (the -O flag) with recent gfortran compilers

Enhancements to Version5 can be written as procedure files in CLE-2000 language or as modifications to the Fortran source. CLE-2000 procedures or new Fortran modules written by you are not covered by the LGPL. We encourage you to release your Fortran source enhancements under the LGPL for inclusion in future versions of Version5.

SEQ_ASCII Fig_reg :: FILE 'Fig_reg.ps' ;

Moreover, if the main CLE-2000 dataset file is named data.x2m, a data.save script file must be defined to recover the Fig_reg.ps file. An example of such a data.save script file follows:

#!/bin/sh # if [ $# = 0 ] then   echo "usage: data.save directory" 1>&2   exit 1 fi echo access data.save MACH=`uname -s` Sysx="`echo $MACH | cut -b -6`" if [ $Sysx = "CYGWIN" ]; then   MACH=`uname -o` elif [ $Sysx = "AIX" ]; then   MACH=`uname -s` else   MACH=`uname -sm | sed 's/[ ]/_/'` fi ls -l mv *.ps $1/"$MACH" echo "data.save completed"

This script file must be set as executable using a Bourne directive:

chmod 755 data.save

valgrind --leak-check=yes ./rdragon data.x2m

Your program will run much slower (eg. 20 to 30 times) than normal, and use a lot more memory. Memcheck will issue messages about memory errors and leaks that it detects.

Here is an example of a case with data exportation. I also made an export of the multicompo containing all the merged/condensed data produced by EDI:. This is the standard way of using DRAGON5. Any Dragon LCM object can be exported that way.

Don't forget to declare chmod 755 the .save and .access scripts.

casl_pin.access

casl_pin.x2m

casl_pin.save

To activate HDF5 capability in Version5, you need:

• Install HDF5 API on your OS and modify your .profile accordingly. If you don't activate HDF5 file support, you don't need to make these modifications. For example, on the Ubuntu OS for x86_64, include the following lines:

  # Support for HDF5 export HDF5_INC="/usr/include/hdf5/serial/" # HDF5 include directory export HDF5_API="/usr/lib/x86_64-linux-gnu/hdf5/serial" # HDF5 C API export LD_LIBRARY_PATH="$LD_LIBRARY_PATH:$HDF5_API"

  On the Ubuntu OS for aarm, include the following lines:

  # Support for HDF5 export HDF5_INC="/usr/include/hdf5/serial/" # HDF5 include directory export HDF5_API="/usr/lib/aarch64-linux-gnu/hdf5/serial" # HDF5 C API export LD_LIBRARY_PATH="$LD_LIBRARY_PATH:$HDF5_API"

• Install Version5 codes using the "make hdf5=1" command.

• Install the extension modules in the Version5_evxxx/PyGan/lib/ directory:
  cd Version5_evxxx/PyGan/ make hdf5=1
• Install the extension modules in the /site-packages/ directory of your OS, together with other extension modules such as numpy or matplotlib. This capability is only possible on recent distributions.
  cd Version5_evxxx/PyGan/ make hdf5=1 pip=1