Most of these packages are already built and available on Release Page, but if you want, you can also build AntiMicroX by yourself.
This program is written in C++ using the Qt framework. A C++ compiler and a proper C++ build environment will need to be installed on your system prior to building this program. Under Debian and Debian-based distributions like Ubuntu, the easiest way to get a base build environment set up is to install the meta-package build-essential. The following packages are required to be installed on your system in order to build this program:
g++
fromgcc
(or clang compiler)cmake
extra-cmake-modules
- QT libraries:
- For QT6:
qt6-base-dev
,qt6-tools-dev-tools
libqt6core5compat6-dev
qt6-tools-dev
- For QT5:
qttools5-dev
andqttools5-dev-tools
(qt5-tools
on distros based on Arch Linux)
- For QT6:
libsdl2-dev
(sdl2
on distros based on Arch Linux) (SDL2)libxi-dev
(libxi
on distros based on Arch Linux) (Optional. Needed to compile with X11 and uinput support)libxtst-dev
(libxtst
on distros based on Arch Linux) (Optional. Needed to compile with XTest support)libx11-dev
(libx11
on distros based on Arch Linux) (Needed to compile with Qt5 support)itstool
(extracts messages from XML files and outputs PO template files, then merges translations from MO files to create translated XML files)gettext
Fedora dependencies
One-liner for installing above dependencies:
sudo dnf install git make cmake gcc cmake extra-cmake-modules qt6-qttools-devel SDL2-devel libXi-devel libXtst-devel libX11-devel itstool gettext-devel;
Ubuntu/Debian dependencies
One-liner for installing above dependencies:
sudo apt install g++ cmake extra-cmake-modules qt6-base-dev qt6-tools-dev-tools libqt6core5compat6-dev qt6-tools-dev libsdl2-dev libxi-dev libxtst-dev libx11-dev itstool gettext ninja-build
QT5 Variant:
sudo apt install g++ cmake extra-cmake-modules qttools5-dev qttools5-dev-tools libsdl2-dev libxi-dev libxtst-dev libx11-dev itstool gettext ninja-build
Windows dependencies
In case of Windows you need QT, SDL2 libraries, cmake and compiler (mingw for example).For setting up your environment you may use msys2
. Alternatively, you may use MSVC
.
This way of building is useful for testing purposes.
In order to build this program, open a terminal and cd into the antimicrox directory. Enter the following commands in order to:
Clone repository
git clone https://github.com/AntiMicroX/antimicrox.git
Build the program:
cd antimicrox
mkdir build && cd build
cmake ..
cmake --build .
Run built binaries
./bin/antimicrox
Recent versions of Visual Studio (2017+) have support for cmake projects. Under Visual Studio 2022, building AntiMicroX is quite straight forward.
- Ensure you have compatable versions of Qt (5.9 works as of writing,) and SDL2-devel installed.
- Open antimicrox as a local folder in VS22. It should pick up the
CMakeLists.txt
and offer an option to open the CMake settings editor. If it doesn't, right click onCMakeLists.txt
in the solution explorer and selectCMake settings for antimicrox
. - In the
Command arguments
section, add an argument to tell CMake where to find your Qt; E.g.:"-DCMAKE_PREFIX_PATH=C:\Qt\5.9\msvc2017_64\lib\cmake"
. As of writing, Qt's msvc2017 works properly through vs22. - Under the
Cmake variables and cache
section, click the link labeled `Save and generate cmake cache to load variables. - If the CMake generation fails due to SDL2, find the variables named
SDL2_PATH
,SDL2_INCLUDE_DIR
, andSDL2_DLL_LOCATION_DIR
in the list view, and set them properly. You may also need to move the headers in the SDL2 include dir inside a folder namedSDL2
to match their include paths on other systems. - At this point you should be able to save your changes to regenerate the cmake cache, which will then allow you to build
antimicrox.exe
through Visual Studio.
A recommended way of installation is building package typical for for your system (or building universal one like an AppImage).
Installation using cmake (not recommended)
This way of installation is not recommended, because it doesn't integrate very well with some environments.
Install:
sudo cmake --install .
Uninstall:
sudo make uninstall
There are a few application specific options that can be used when running cmake to build antimicrox. The following file will attempt to list some of those options and describe their use in the project.
-DBUILD_DOCS
Default: OFF. Build documentation using doxygen (installed doxygen and dot required). Generated files can be found in docs
directory
-DUPDATE_TRANSLATIONS
Default: OFF. Set updateqm target to call lupdate in order to update translation files from source.
-DCMAKE_BUILD_TYPE
Default: Not defined. You can define build type.
Debug builds are compiled with enabled debug flags, disabled optimizations and better printing stack trace in case of crash.
-DTRANS_REMOVE_OBSOLETE
Default: OFF. Do not specify -noobsolete option when calling lupdate command for qm files. -noobsolete is a method for getting rid of obsolete text entries
-DCHECK_FOR_UPDATES
Default: OFF. Show update button in GUI when newer version is available. Recommended for builds distributed without package management systems.
-DWITH_TESTS
Default: OFF. Allows for the launch of test sources with unit tests
-DANTIMICROX_PKG_VERSION
Default: Not defined. (feature intended for packagers) Manually define version of package displayed in info tab. When not defined building time is displayed instead. Example: -DANTIMICROX_PKG_VERSION=3.1.7-appimage
-DAPPDATA
Default: ON. Build the project with AppData support.
-DWITH_UINPUT
Default: ON. Compile the program with uinput support.
-DINSTALL_UINPUT_UDEV_RULES
Default: ON. During installation process create new udev rule allowing regular users using uinput.
-DWITH_X11
Default: ON. Compile the program with X11 support.
-DWITH_XTEST
Default: ON. Compile the program with XTest support.
qDebug output on terminal:
On some systems, particularly if you do not have QtCreator installed, you may notice that some debug info (in particular qDebug() statements) do not generate any output on a Linux terminal. To fix this, you can create a qtlogging.ini file:
mkdir ~/.config/QtProject
printf '[Rules]\n*.debug=true\nqt.*.debug=false\n' > ~/.config/QtProject/qtlogging.ini
Once this file is created and has the debug rules present, it should be picked up and applied automatically the next time you run cmake to create a build.
cd antimicrox
mkdir build && cd build
cmake .. -DCPACK_GENERATOR="DEB"
cmake --build . --target package
If your distribution doesn't yet have an RPM package, you can easily build one for yourself.
cd antimicrox
mkdir build && cd build
cmake .. -DCPACK_GENERATOR="RPM"
cmake --build . --target package
Create build directory
mkdir build && cd ./build
Download tools used for creating appimages (and make them executable)
wget https://github.com/linuxdeploy/linuxdeploy/releases/download/continuous/linuxdeploy-x86_64.AppImage
wget https://github.com/AppImage/AppImageKit/releases/download/continuous/appimagetool-x86_64.AppImage
wget https://github.com/linuxdeploy/linuxdeploy-plugin-qt/releases/download/continuous/linuxdeploy-plugin-qt-x86_64.AppImage
chmod +x linuxdeploy-x86_64.AppImage
chmod +x appimagetool-x86_64.AppImage
chmod +x linuxdeploy-plugin-qt-x86_64.AppImage
Build antimicrox and install it in AppDir directory
cmake .. -DCMAKE_INSTALL_PREFIX=/usr
make
make install DESTDIR=AppDir
Create AppImage file
./linuxdeploy-x86_64.AppImage --appdir AppDir --plugin qt
./appimagetool-x86_64.AppImage AppDir/
The command builds the package into the build
folder and installs the created flatpak.
The Flathub manifest can be located in Flathub's Github repo.
flatpak install flathub org.kde.Platform//5.11 org.kde.Sdk//5.11
flatpak-builder --user --install build/ other/io.github.antimicrox.antimicrox.yml --force-clean
In case of building Windows package you will need NSIS.
cmake -DCMAKE_BUILD_TYPE=Debug -B .\build
cmake --build .\build --target package