Skip to main content
Version: v1.0.0

Installation and Usage

Usage​

There are three different ways to use dune-copasi:

Graphical User Interface​

The Spatial Model Editor is a user friendly GUI editor to create and edit 2D spatial Systems Biology Markup Language (SBML) models of bio-chemical reactions. Additionally, it can simulate them with dune-copasi. A big advantage of this package is that is tailored for biologists and is available with just a pair of clicks on the major plataforms. Find more information here!

sme

Configuration File​

In this form, dune-copasi provides one executable for single compartment systems (dune-copasi-sd) and another one for multiple compartment systems (dune-copasi-md). Both executables expect one INI configuration file which shall contain all the information to perform the simulation.

dune-copasi-md config.ini

Find more information about available configurations on the Parameter Tree documentation. This form may be installed in one of the following procedures:

Application Programming Interface​

The dune-copasi C++ objects may be consumed by other programs in order to generate custom simulation rules, to couple intermediate steps with other tools, or to implement another GUI, etc. In such a case, dune-copasi must be available in development mode and the downstream library is expected to consume the library by using the CMake build system and use the C++ objects in code. This form is available on:

Installation​

Graphical User Interface​

To install the Spatial Model Editor, please refer to its installation instructions:

Docker Runner​

The easiest form to use our executables for INI usage, is by using a Docker Container. There, the software is boundled such that no installation other than docker is required.

Install Docker​

First, get and install Docker following the docker installation instructions.

Prepare a working directory​

To be able to easily share data between your operating system and the docker container, prepare a working directory with read/write rights to other users (e.g. a folder named dune-copasi):

mkdir -m o+rw dune-copasi && cd dune-copasi

This working directory will be accessible to your text editor, paraview as well as to the dune-copasi-md executable inside the docker container. Thus, move or create your configuration files into it at will.

# setup/write ini and input files for dune-copasi...
nano config.ini

Run the program​

Here, you may pull and run this version container for from our GitLab registry. To do so, call the docker container with a configuration file config.ini using one of the following commands on the terminal:

docker run -v $PWD \
  registry.dune-project.org/copasi/dune-copasi/dune-copasi:v1.0.0\
  config.ini

The results of those computations will be written on current directory as mentioned above. For more information about running docker images, visit the docker run documentation.

Debian/Ubuntu and macOS Packages​

For Debian/Ubuntu/macOS users that want to make use of dune-copasi with INI usage, installation is as simple as:

curl -fsSL https://gitlab.dune-project.org/copasi/dune-copasi/-/jobs/artifacts/v1.0.0/raw/packages/dune-copasi-runtime.deb?job=build:debian_clang -o dune-copasi-runtime.deb
apt install ./dune-copasi-runtime.deb

Once installed, the programs dune-copasi-sd and dune-copasi-md will be available on the command line:

dune-copasi-md config.ini

To remove the package call the following command on the terminal

apt remove dune-copasi-runtime

Docker Build​

Advanced users, who may want to make modifications the dune-copasi code but do not to install all the dependencies may opt for a docker build. In this case, you must download the dune-copasi source code, modify it, and build a new local docker image:

# fetch source code from git
git clone ssh://git@gitlab.dune-project.org:22022/copasi/dune-copasi.git

# checkout the branch you want to modify (e.g. v1.0.0)
git checkout v1.0.0

# enter dune-copasi directory
cd dune-copasi

# modify source code at will
# ...

# build a new docker image from modified code (tag: dune-copasi)
docker build -t dune-copasi .

This will build all dune dependencies as well as the new modified version of dune-copasi. Then, follow the Docker runner guide to run the new image with tag dune-copasi.

Manual Installation​

Finally, to locally build and install dune-copasi we requires to obtain, compile and install a variety of dependencies.

Operating Systems and Compilers​

The manual installation is known to compile and run under Debian/Ubuntu, macOS, and Windows. In all three cases with Clang and GCC based compilers. It is however, known to not be compatible with Microsoft Visual Studio.

Dependencies​

The following list of software is required to install and use dune-copasi:

SoftwareVersion/Branch
CMake>= 3.1
C++ compiler>= C++17
libTIFF>= 3.6.1
muParser>= 2.2.5
dune-common== 2.7
dune-geometry== 2.7
dune-grid== 2.7
dune-uggrid== 2.7
dune-istl== 2.7
dune-localfunctions== 2.7
dune-functions== 2.7
dune-logging== 2.7
dune-multidomaingrid== 2.7
COPASI/dune-typetreesupport/dune-copasi-v1.0.0
COPASI/dune-pdelabsupport/dune-copasi-v1.0.0
info

Notice that some required dune modules are forks of original repositories and are placed under the COPASI namespace on the DUNE GitLab.

Dune Options File​

An important part of the installation procedure is to tune the build system flags to accommodate the build to your system. This is done via the dune options file. In essence, is just a bash script that sets different flags (mainly the flags for CMake CMAKE_FLAGS). While the dune project usually leaves this open for the user, we provide a dune-copasi.opts file with sensible default options for the main operating systems.

This file can be called to show the current configuration:

./dune-copasi.opts

There are two form to add flags to the dune-copasi.opts file:

  1. Setting environmental variables starging with CMAKE_ and DUNE_. These variables will be automatically included into the list of cmake flags.
export CMAKE_INSTALL_PREFIX="/path/to/install/prefix/"
export CMAKE_GENERATOR="'Ninja'"
./dune-copasi.opts
  1. Appending new flags into the CMAKE_FLAGS variable in the dune-copasi.opts file (care must be taken to scape quotes):
echo 'CMAKE_FLAGS+=" -DCMAKE_INSTALL_PREFIX=/path/to/install/prefix/"' >> dune-copasi.opts
echo "CMAKE_FLAGS+=\" -DCMAKE_GENERATOR='Ninja'\"" >> dune-copasi.opts
./dune-copasi.opts

For more information about the possible options and the dune options file, check out the dune installation documentation and the build system documentation.

Installation​

The first four dependencies can be obtained by your preferred package manager in unix-like operating systems. e.g.

apt update
apt install cmake gcc g++ libtiff-dev libmuparser-dev git

The required DUNE modules (including dune-copasi) can be obtained via internet by using git. For smooth installation, is better place all the dune modules within the same directory.

DUNE Version incompatibility

Notice that this procedure assumest that you don't have previous installation of DUNE in your system. If that's the case, uninstall DUNE before continouing, otherwise, version conflicts may be difficult if not impossible to resolve.

# prepare a folder to download and build dune modules
mkdir ~/dune-modules && cd ~/dune-modules

# fetch dependencies & dune-copasi in ~/dune-modules folder
git clone -b releases/2.7 https://gitlab.dune-project.org/core/dune-common
git clone -b releases/2.7 https://gitlab.dune-project.org/core/dune-geometry
git clone -b releases/2.7 https://gitlab.dune-project.org/core/dune-grid
git clone -b releases/2.7 https://gitlab.dune-project.org/staging/dune-uggrid
git clone -b releases/2.7 https://gitlab.dune-project.org/core/dune-istl
git clone -b releases/2.7 https://gitlab.dune-project.org/core/dune-localfunctions
git clone -b releases/2.7 https://gitlab.dune-project.org/staging/dune-functions
git clone -b releases/2.7 https://gitlab.dune-project.org/extensions/dune-multidomaingrid
git clone -b releases/2.7 --recursive https://gitlab.dune-project.org/staging/dune-logging
git clone -b support/dune-copasi-v1.0.0 https://gitlab.dune-project.org/copasi/dune-typetree
git clone -b support/dune-copasi-v1.0.0 https://gitlab.dune-project.org/copasi/dune-pdelab
git clone -b v1.0.0 https://gitlab.dune-project.org/copasi/dune-copasi

# apply patches
git apply -C dune-common dune-copasi/.ci/dune-common.patch

Then, build and install the DUNE modules with the dunecontrol script:

# choose an installation path      (this is read by the 'dune-copasi.opts' file)
export CMAKE_INSTALL_PREFIX=/opt/dune/

# configure and build dune modules                                (go grab a coffee)
./dune-common/bin/dunecontrol --opts=dune-copasi/dune-copasi.opts all

# install binaries and libraries                                  (may require sudo)
./dune-common/bin/dunecontrol --opts=dune-copasi/dune-copasi.opts bexec make install

# remove source and build files
cd ~ && rm -r ~/dune-modules

# include dune binaries into your path
echo "export PATH=${CMAKE_INSTALL_PREFIX}/bin:\$PATH" >> $HOME/.bashrc

For further information on dune module installation process, please check out the dune-project web page.

Run the program​

Once installed, the programs dune-copasi-sd and dune-copasi-md will be available on the command line:

dune-copasi-md config.ini

Importing CMake targets​

If you additionally want to use the API for development, you must find and consume the CMake targets from dune-copasi in your project as follows:

# ...
find_package(dune-copasi IMPORTED REQUIRED)
target_link_libraries(my_app PRIVATE dune-copasi::dune-copasi)
# ...

If dune-copasi was installed on a custom directory (e.g. using CMAKE_INSTALL_PREFIX=/opt/dune), it may be possible that you need to pass such directory to the CMAKE_PREFIX_PATH when building the project. This way, CMake can find our targets and configuration:

cmake -DCMAKE_PREFIX_PATH:PATH=/opt/dune /path/to/app/source/
Edit this page
Last updated on by Santiago Ospina De Los Rios