The latest version of this document is always available at https://thelfer.github.io/tfel/web/packages.html.
This document describes how to generate packages for
TFEL
. It relies on the instructions given here to build TFEL
from the sources
using the cmake
build system.
The section is only meaningful if you wish to share the generated packages between various computers: it can be skipped if you only want to generate a package for you personal use.
By portable, we mean binaries that can be executed on machines:
sse
instructions.python
if the python
bindings are enabled.However, using portable binaries does not affect the fact that
MFront
will try to generate the most effective code for you
particular machine once installed. We rely on the fact that
most compilers have an option to detect the current machine processor:
for gcc
and clang
this option is
-march=native
. This option is still enabled when compiling
libraries generated by MFront
when using the
--obuild
option. This is why it is preferable to use
portable binaries with the same compiler version that the one use to
produce those binaries.
We introduced an additional option to cmake
named
enable-portable-build
to allow building a portable version
of TFEL
. This option must be added to the
cmake
command line:
$ cmake [options] -Denable-portable-build=ON
The various other options that can be passed to cmake
are described here.
$ cmake [options] -Denable-portable-build=ON
$ make
$ cpack -G [GENERATOR_NAME]
The list of available generators are given by the
cpack --help
command:
$ cpack --help
On Debian wheezy
, the following generators are
avaiable:
DEB
: Debian packagesNSIS
: Null Soft InstallerRPM
: RPM packagesSTGZ
: Self extracting Tar GZip compressionTBZ2
: Tar BZip2 compressionTGZ
: Tar GZip compressionTZ
: Tar Compress compressionZIP
: ZIP file formatDepending on the options provided to the cmake
command
and the generator used, various packages can be build:
core
contains all the core TFEL
libraries.mfront
contains the MFront
code
generator.mtest
contains the MTest
solver.docs
contains the reference documentation (for
TFEL
, MFront
and MTest
)doxygen
contains the doxygen
documentation
(for TFEL
, MFront
and
MTest
).python_bindings
contains the python
bindings (for TFEL
, MFront
and
MTest
).$ cmake ../trunk -DCMAKE_BUILD_TYPE=Release -Dlocal-castem-header=ON -Denable-fortran=ON -Denable-python=ON -Denable-python-bindings=ON -Denable-aster=ON -Denable-zmat=OFF -Denable-cyrano=ON -Denable-portable-build=ON
$ cpack -G DEB
RPM
packages for Mageia
(\(64\) bits)$ cmake ../trunk -DCMAKE_BUILD_TYPE=Release -Dlocal-castem-header=ON -Denable-fortran=ON -Denable-python=ON -Denable-python-bindings=ON -Denable-aster=ON -Denable-zmat=OFF -Denable-cyrano=ON -Denable-portable-build=ON -DLIB_SUFFIX=64
$ cpack -G RPM
The LIB_SUFFIX
is used to specify that the libraries
must be place in the lib64
directory.
NSIS
for Windows
on LiNuX
If you have a cross-compiler (in the case of your example,
mingw64
) and the nsis
package installed, one
can build a Windows
package like this:
$ cmake ../trunk -DCMAKE_BUILD_TYPE=Release -Dlocal-castem-header=ON -Denable-fortran=ON -Denable-python=OFF -Denable-python-bindings=OFF -Denable-aster=ON -Denable-zmat=OFF -Denable-cyrano=ON -DCMAKE_TOOLCHAIN_FILE=../trunk/cmake/ToolChain-i686-w64-mingw32.cmake -DCMAKE_INSTALL_PREFIX=/home/th202608/codes/tfel/tfel-2.0.x/install -Denable-portable-build=ON -Denable-static=ON
$ cpack -G NSIS
The enable-static
portion is mandatory since the shared
libraries associated with the cross compiler won’t be present on
Windows
.
One may use another cross-compiler by providing an appropriate tool-chain file.