// Copyright (C) 2021 The Qt Company Ltd.
// SPDX-License-Identifier: LicenseRef-Qt-Commercial OR GFDL-1.3-no-invariants-only

/*!
    \page integrity-monolith-project-tutorial.html
    \title Qt for INTEGRITY - Monolith Project Tutorial
    \previouspage integrity.html
    \nextpage integrity-installing-dependencies.html

    The INTEGRITY applications can be monolith application projects,
    dynamic download application projects, or kernelspace projects. The monolith
    application is a stand-alone executable that you can run directly on a
    target device.

    In this tutorial, we build an INTEGRITY monolith project for
    a Qt application. After following the steps in this
    tutorial, you will have the Qt for INTEGRITY development environment up and running.

    The tutorial assumes you have the
    \l {https://www.lantronix.com/products/sa8155p-automotive-development-platform}
    {Qualcomm Snapdragon 8155P}.

    Tutorial content:
    \list
        \li \l {Installing Platform Dependencies}
        \li \l {Build Qt with Ubuntu host}
        \li \l {Build Qt with Windows 10 host}
    \endlist
*/

/*!
    \page integrity-installing-dependencies.html
    \title Installing Platform Dependencies
    \previouspage integrity-monolith-project-tutorial.html
    \nextpage integrity-linux-monolith.html

    Before building applications with Qt for INTEGRITY,
    install the correct build tools and other dependencies required
    in the 64-bit Linux development host:

    \table 80%
    \header \li Requirement \li Description
    \row \li INTEGRITY 19.0.13 installation
         \li The installation must contain the patches for C++17 support.
             Contact \l {https://support.ghs.com/contact/request-support/}
            {Green Hills Software}.
            \note GHS patches \e 14695, \e 16456, \e 16761, \e 16762 and \e 16917.

    \row \li MULTI IDE and Green Hills Software Compiler (version 2020.1.4 or newer)
         \li The Green Hills Software development tools. See
             \l {http://www.ghs.com/products/MULTI_IDE.html} {MULTI IDE}.
             For licenses, contact \l {https://support.ghs.com/licensing/request-license/}
            {Green Hills Software}.
             \note GHS patches \e 16398 and \e 17423.

    \row \li QC BSP [ES7] for GHS Integrity 19.0.13-QC
         \li The development Qualcomm Board Support Package for Integrity and Snapdragon 8155P Board.
             Contact \l {https://support.ghs.com/contact/request-support/}
            {Green Hills Software}.

    \row \li QC [ES7] Customer package
         \li Additional patches and instructions from Qualcomm.
             Contact \l {https://www.qualcomm.com/support} {Qualcomm Support}.
    \row
        \li CMake 3.18.4 or higher
        \li CMake build system is now the default one for Qt 6 building.
            See \l{CMake Documentation}.
    \row
        \li Ninja
        \li Ninja is a build system with a focus on speed. It is used to build Google
            Chrome, parts of Android, LLVM, and can be used in many other projects due to CMake's Ninja backend.
            See \l {https://cmake.org/cmake/help/latest/generator/Ninja.html} {Ninja}.
    \row
        \li Other extra packages (perl, python, etc) required to be installed Host OS
        \li See  \l {https://wiki.qt.io/Building_Qt_5_from_Git} {Building Requirements}.
            \note Perl is not required if you download the Qt sources via
            your Qt Account.
    \endtable
*/

/*!
    \page integrity-linux-monolith.html
    \title Build Qt with Ubuntu host
    \previouspage integrity-installing-dependencies.html
    \nextpage integrity-win-monolith.html

    \include qt6CMakeCrossCompile.qdocinc Qt cross-compile introduction

    The following tutorial content is for building a Qt for \e {INTEGRITY 19.0.13} target on an \e {Ubuntu 20.04 64 host}:
    \list
        \li \l {Building Qt for Qualcomm Snapdragon 8155P Board on Ubuntu}
        \li \l {Building a monolith project}
        \li \l {Flashing and Running an Image on the 8155P}
    \endlist
*/

/*!
    \page integrity-building-qt-8155p-on-ubuntu.html
    \title Building Qt for Qualcomm Snapdragon 8155P Board on Ubuntu
    \previouspage integrity-linux-monolith.html
    \nextpage integrity-building-monolith.html

    Having Green Hills INTEGRITY and Qualcomm development environments setup is a required before proceeding. See \l {Installing Platform Dependencies}.

    \section1 Creating a set environment shell script

    To set up the development environment for Qt for INTEGRITY, build Qt from the sources for the Qualcomm Snapdragon 8155P board.
    Before building Qt for INTEGRITY, set up build environment. Here a batch script to automate that, as it needs to be done before each build.

    Create a new shell script \e{setEnvironment.sh}, and save it under
    your home folder. Add the following export commands to the script:

    \badcode
        export PATH=$PATH:/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/comp
        export INTEGRITY_DIR=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/integrity
        export INTEGRITY_BSP=platform-sa8155
        export INTEGRITY_BUILD_TARGET=chk
        export QC_MULTIMEDIA_INC_DIR=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/include/amss/multimedia
        export GL_INC_DIR=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/AMSS/multimedia/graphics/include/public
        export GL_LIB_DIR=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/rel/libs/base:/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/rel/libs/multimedia/display:/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/rel/libs/multimedia/graphics:/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/rel/libs/platform/:/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/AMSS/multimedia/graphics/opengl/esx/build/integrity/prebuilt/
    \endcode

    These export paths assume you have used the \c /work/ghs/* installation directories
    while installing the MULTI IDE and INTEGRITY (see \l {Installing Platform Dependencies}). If you have not used the default
    directories, adjust the export paths accordingly.

    To initialize your build environment, run the following command in a terminal:
    \badcode
        source ~/setEnvironment.sh
    \endcode

    \note Run this command in your terminal every time you build Qt,
    or use the \c qmake or \c CMake build systems.

    \include qt6GettingSources.qdocinc Getting Qt6 sources

    \section1 Building Qt Desktop for cross-compiling tools usage

    The cross-compiling Qt requires a host build of Qt being available.
    During the build, tools such as moc, rcc, qmlcachegen, qsb,
    and others, are invoked from there.
    For more detailed information please read
    \l {https://www.qt.io/blog/qt-6-build-system} {Cross-compiling Qt}.

    Run the following commands:
    \badcode
        mkdir hostbuild
        cd hostbuild/
        ../qt5/configure -nomake tests -nomake examples -release -prefix /work/ghs/hostbuild
        cmake --build . --parallel 6
        cmake --install .
    \endcode

    \include use-ninja-note.qdocinc ninja-note

    \section1 Creating a toolchain file for INTEGRITY

    To cross-compile a project with CMake, one must specify a toolchain file.
    This CMake-language file sets the right values for the platform name,
    the compiler/linker used, and a whole bunch of other toolchain-specific things.
    For Integrity build on Ubuntu create a toolchain.cmake file with content:

    \quotefromfile platforms/cmake/linux/toolchain_integrity.cmake

    \printuntil set(OPENGL_opengl_LIBRARY ${EGL_LIBRARY})

    \section1 Configuring Qt for INTEGRITY

    Configure Qt for the Qualcomm Snapdragon 8155P board using these following commands:

    \badcode
        cd /work/ghs/targetbuild // Path to Qt installation directory
        cmake ../qt5/ -DQT_HOST_PATH=/work/ghs/hostbuild/qtbase
        -DCMAKE_TOOLCHAIN_FILE=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/toolchain_integrity.cmake
        -DQT_QMAKE_TARGET_MKSPEC=devices/integrity-armv8-SA8155P -DBUILD_qtdoc=OFF
        -DBUILD_qttranslations=OFF -DFEATURE_printdialog=OFF --debug-trycompile -DFEATURE_dbus=OFF
        -GNinja -DUNIX=ON
        -DEGL_LIBRARY=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/libeglmegapack.a
        -DEGL_INCLUDE_DIR=/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/AMSS/multimedia/graphics/include/public
        -DFEATURE_dnslookup=OFF -DFEATURE_glib=OFF -DFEATURE_libudev=OFF -DFEATURE_system_pcre2=OFF -DFEATURE_sql_mysql=OFF
        -DCMAKE_INSTALL_PREFIX=/work/ghs/targetbuild
    \endcode

    \note INTEGRITY supports only static Qt builds.
    \note \c QT_HOST_PATH variable introduced in Qt 6.
          When cross-compiling, this must be set to the install location of Qt for the host platform.
          It is used to locate tools to be run on the host (moc, rcc, androiddeployqt, and so on).

    \section1 Building Qt for INTEGRITY

    Build Qt by calling \c cmake in the terminal. You can run \c cmake with as
    many cores on your host machine as you desire. In our example we use six cores:

    \badcode
        cmake --build . --parallel 6
    \endcode

    \target installing-qt-for-sa8155
    \section1 Installing Qt

    If you have not used the configure option \c {-prefix $PWD/qtbase} in \l {Configuring Qt},
    run the following commands in a terminal:

    \badcode
        cd <Qt installation directory>
        cmake --install .
    \endcode

    If you have used the configure option \c {-prefix $PWD/qtbase},
    you can use Qt from the build directory, without running the
    \c {cmake install} command.

    Qt is now configured and built for the sa8155 board.
*/

/*!
    \page integrity-building-monolith.html
    \title Building a monolith project
    \previouspage integrity-building-qt-8155p-on-ubuntu.html
    \nextpage integrity-flash-image-and-run.html

    This tutorial will guide you through building a monolith INTEGRITY project for a Qt example
    application. You can select any Qt example application that uses the
    \l {Qt for INTEGRITY#Supported Qt Modules}{Supported Qt modules}.

    Before building the monolith INTEGRITY project, prepare your build environment
    by running the \c setEnvironment.sh script. For more information about the script, see
    \l {Creating a set environment shell script}.

    \badcode
        source ~/setEnvironment.sh
    \endcode

    \section1 Building the Qt application
    \list
        \li \c CMake tool

            To build the application against Qt6 using CMake, run the following commands in a terminal:

            \badcode
                <Qt installation path>/bin/qt-cmake <Qt example application path>/CMakeLists.txt
                cmake --build .
            \endcode

            Where, \c qt-cmake is the wrapper script that calls CMake to configure your project with appropriate include paths.
        \li \c qmake tool

            To build the application against Qt6 using qmake, run the following commands in a terminal:

            \badcode
                <Qt installation path>/bin/qmake <Qt example application path>/application.pro
                make
            \endcode
    \endlist

    \section1 Building a monolith project

    The board support package (BSP) for the Qualcomm Snapdragon 8155P board provides
    a build script to create a set of images for board partitions:
    \badcode
        /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/build_ghs.sh
    \endcode

    Add a Qt application to a build by adding it into the \e {monolith-service.int} file:

    \list
        \li Start MULTI Launcher.
        \li Select \uicontrol {Components} > \uicontrol {Open Project Manager}.
        \li Select the project file \e {default.gpj}
            under the \e {/work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp} directory:
            \image open-project.png "Select a project."
                   MULTI application shows a window with a list of project files from the chosen folder.
        \li Select \uicontrol {Open}.
    \endlist

    In the MULTI Project Manager view, you should see a tree structure of the opened
    project.

    Go through the \c default.gpj sub projects:
    \list
        \li Select \e {target.auto} \e {vmm-adp-no-gvm-sa8155.gpj} > \e {vvm-adp-gvm-ref.gpj} > \e {monolith-service.gpj}.
            You can observe the project structure and edit a project's files.

        \li Select \e {monolith-service.int}
            \image project-structure.png "Project tree."
                   Selected \e {monolith-service.int} file is highlighted in the project tree.

        \li Right-click on the file, then select \uicontrol {Edit} from the context menu.
        \li Add the following lines at the end of the file.
            \badcode
                AddressSpace
                Name    myappname
                Filename    /path/to/your/app/executable
                MemoryPoolSize 0x2700000
                Language    C++
                HeapSize    0x90000

                Task Initial
                StackSize    0x80000
                StartIt    false
                EndTask
                Extendedmemorypoolsize 0x300000
                EndAddressSpace
            \endcode
            \note Replace </path/to/your/app/executable> with a path to your application executable.

        \li Run the build script.
            \badcode
                bash /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/build_ghs.sh
            \endcode
    \endlist

    Your monolith project is now ready to be flashed on to the board.
*/

/*!
    \page integrity-flash-image-and-run.html
    \title Flashing and Running an Image on the 8155P
    \previouspage integrity-building-monolith.html
    \nextpage integrity-monolith-project-tutorial.html

    \section1 Qualcomm Snapdragon 8155P Board
        This is a top view of the Qualcomm Snapdragon 8155P board.
    \image sa8155p.png "Top view of the Qualcomm Snapdragon 8155P board."

    \section1 Set up the wiring
        Several cables between the PC and the board are needed for flashing and debugging applications on the board:

        \list
            \li Power connector
            \li Micro USB is the FT serial console output
            \li Normal USB is the QFIL/Fastboot port (USB-A - USB A/USB C cable)
            \li DisplayPort cable is for Graphical output
            \li Ethernet port, for loading an application dynamically.
        \endlist
        \image wiring1.png "Front view of the Qualcomm Snapdragon 8155P board."
        \caption This is a wiring configuration example: power is ON,
                 male USB-A is connected for flashing images,
                 DisplayPort cable is connected for Graphical output.
        \image wiring2.png "Side view of the Qualcomm Snapdragon 8155P board."
        \caption Micro USB is connected for using the FT serial console.

    \section1 Switch to Fastboot Mode
        To flash images on Qualcomm Snapdragon 8155P board install
        Fastboot Tool on Host OS.
        See, \l {https://developer.android.com/studio/releases/platform-tools} {Fastboot Tool}

        Before flashing switch the board to the Fastboot Mode:
        \list
            \li Open serial connection with the board:
                \badcode
                    putty /dev/ttyUSB0 -serial -sercfg 115200,8,1
                \endcode
            \li There are 2 options:

                - On the device, hold the volume key and power cycle the device.

                - Or press down arrow on the UART shell and power cycle the device.

            \li If the board switches to Fastboot Mode successfully,
                it prints following console output:
                \image fastboot-mode.png "Fastboot terminal."

                Another way to check the board is in Fastboot Mode is to run the command:
                \badcode
                    fastboot devices
                \endcode

        \endlist

    \section1 Flash images
        The build script produces set of images for board partitions.
        \badcode
            boot.img, perf_dyn.img, misc_dyn.img, abl.elf, etc
        \endcode

        After switching to Fastboot Mode images can be flashed to the board.

        \list
        \li When setting up for the first time, follow the images flashing procedure from GHS
            \e ES7_FinalCopy/ES7_customer_package_readme.docx:

            \badcode
                cd /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/chk/bin/target
                fastboot flash abl  abl.elf
                fastboot flash boot vmm-adp-gvm-sa8155/boot.img
                fastboot flash perf_dyn_a vmm-adp-gvm-sa8155/perf_dyn.img
                fastboot flash misc_dyn_a  vmm-adp-gvm-sa8155/misc_dyn.img

                cd /work/ghs/sa8155/es7/es7_dev_env/ES7_FinalCopy/Images/sa8155_hyp
                fastboot flash hyp_a hyp.mbn
                fastboot flash tz tz.mbn
                fastboot flash apdp apdp.mbn

                cd /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/chk/bin/target/fs
                fastboot flash gh_sys sys.img
                fastboot flash gh_persist ghs_persist.img
                fastboot flash gh_test ghs_test.img.sparse

                cd /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/prebuilt_NHLOS/adsp/asic_8150
                fastboot flash adsp adsp.img

                cd /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/lagvm/LINUX/android/out/target/product/msmnile_gvmgh
                fastboot flash vendor vendor.img
            \endcode
            \note \e ES7_FinalCopy/ES7_customer_package_readme.docx is a part of QC [ES7] Customer package.
                  Contact \l {https://www.qualcomm.com/support} {Qualcomm Support} for more information.

        \li If this is not the first time flashing, then the monolith part should be flashed:
            \badcode
                cd /work/ghs/sa8155/es7/es7_dev_env/hlos_dev_boot/apps/ghs_apps_proc/qc_bsp/out/chk/bin/target
                fastboot flash boot vmm-adp-gvm-sa8155/boot.img
            \endcode
        \li Restart the board.
        \endlist

    \section1 Run Qt application on the board
        \list
            \li Open serial console:
                \badcode
                     putty /dev/ttyUSB0 -serial -sercfg 115200,8,1
                \endcode
            \li Execute the command:
                \badcode
                    rt <application name> Initial
                \endcode
            \li Run Qt application example:
                \image qml-application.png "QML application"
                       Qt application is running on Qualcomm Snapdragon 8155P Board and displayed on the connected screen.
        \endlist
*/

/*!
    \page integrity-win-monolith.html
    \title Build Qt with Windows 10 host
    \previouspage integrity-linux-monolith.html
    \nextpage integrity-monolith-project-tutorial.html

    \include qt6CMakeCrossCompile.qdocinc Qt cross-compile introduction

    The following tutorial content is for building a Qt for \e {INTEGRITY 19.0.13} target on a \e {Windows 10 64 host}:
    \list
        \li \l {Building Qt for Qualcomm Snapdragon 8155P Board on Windows 10}
        \li \l {Building and flashing a Dynamic Download Project}
    \endlist
*/

/*!
    \page integrity-building-qt-8155p-on-windows.html
    \title Building Qt for Qualcomm Snapdragon 8155P Board on Windows 10
    \previouspage integrity-win-monolith.html
    \nextpage integrity-building-and-flashing-dd-project.html

    Having Green Hills INTEGRITY and Qualcomm development environments setup is a required before proceeding. See \l {Installing Platform Dependencies}.

    \section1 Creating a batch script for Windows 10

    To set up the development environment for Qt for INTEGRITY, build Qt from the sources for the Qualcomm Snapdragon 8155P board.
    Before building Qt for INTEGRITY, set up build environment. Here a batch script to automate that, as it needs to be done before each build.

    For Windows 10 create a new batch script \e{setEnvironment.bat}, and save it under
    your home folder. Add the following export variables to the script:
    \badcode
        @echo off
        set PATH=%PATH%;C:\ghs\comp_202014
        set INTEGRITY_DIR=C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\integrity
        set INTEGRITY_BSP=platform-sa8155
        set INTEGRITY_BUILD_TARGET=chk
        set QC_MULTIMEDIA_INC_DIR=C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\include\amss\multimedia
        set GL_INC_DIR=C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\AMSS\multimedia\graphics\include\public
        set GL_LIB_DIR=C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\out\rel\libs\base;C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\out\rel\libs\multimedia\display;C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\out\rel\libs\multimedia\graphics;C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\out\rel\libs\platform\;C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot\apps\ghs_apps_proc\qc_bsp\AMSS\multimedia\graphics\opengl\esx\build\integrity\prebuilt\
        set TARGET_ROOT_PATH="C:\Users\user\ghs_pack\es7_dev_env\hlos_dev_boot"
    \endcode

    These export paths assume you have used the \c {C:\ghs\comp_202014 and C:\Users\user\ghs_pack\*} installation directories
    while installing the MULTI IDE and INTEGRITY (see \l {Installing Platform Dependencies}). If you have not used the default
    directories, adjust the export paths accordingly.

    To initialize your build environment, run the following command in a Windows CMD terminal:

    \badcode
        setEnvironment.bat
    \endcode

    \note Run this command in the Windows CMD terminal every time you build Qt,
    or use the \c qmake or \c CMake build systems.

    \include qt6GettingSources.qdocinc Getting Qt6 sources

    \section1 Building Qt Desktop for cross-compiling tools usage

    The cross-compiling Qt requires a host build of Qt being available.
    During the build, tools such as moc, rcc, qmlcachegen, qsb,
    and others, are invoked from there.
    For more detailed information please read
    \l {https://www.qt.io/blog/qt-6-build-system} {Cross-compiling Qt}.

    Run the following commands for Windows 10 Host build:
    \badcode
        mkdir hostbuild
        cd hostbuild/
        C:/Users/user/qt5/configure -nomake tests -nomake examples -release -prefix C:/Users/user/hostbuild
        cmake --build . --parallel 6
        cmake --install .
    \endcode

    \section1 Creating a toolchain file for INTEGRITY

    To cross-compile a project with CMake, one must specify a toolchain file.
    This CMake-language file sets the right values for the platform name,
    the compiler/linker used, and a whole bunch of other toolchain-specific things.
    For Integrity build on Windows 10 create a toolchain.cmake file with following content:

    \quotefromfile platforms/cmake/win/toolchain_integrity.cmake

    \printuntil set(CMAKE_C_LINK_EXECUTABLE   "${CMAKE_CXX_COMPILER} ${CMAKE_C_FLAGS} <CMAKE_C_LINK_FLAGS> <LINK_FLAGS> <OBJECTS> -o <TARGET> <LINK_LIBRARIES>")

    \section1 Configuring Qt for INTEGRITY

    Configure Qt for the Qualcomm Snapdragon 8155P board using these following commands:
    \c {Windows 10 HOST} requires follow configure line:
        \badcode
            mkdir targetbuild
            cd targetbuild/
            cmake C:/Users/user/qt5/ -DQT_HOST_PATH=/c/Users/user/hostbuild/qtbase
            -DCMAKE_TOOLCHAIN_FILE=/c/Users/user/ghs_pack/es7_dev_env/hlos_dev_boot/toolchain_integrity.cmake
            -DQT_QMAKE_TARGET_MKSPEC=devices/integrity-armv8-SA8155P
            -DBUILD_qtdoc=OFF -DBUILD_qttranslations=OFF -DFEATURE_printdialog=OFF --debug-trycompile -DFEATURE_dbus=OFF
            -DFEATURE_dnslookup=OFF -DFEATURE_glib=OFF -DFEATURE_system_pcre2=OFF -DFEATURE_sql_mysql=OFF
            -DQT_FEATURE_harfbuzz=OFF -DFEATURE_pkg_config=OFF -DUNIX=ON -DCMAKE_HOST_WIN32=ON -GNinja -DCMAKE_INSTALL_PREFIX=/c/Users/user/targetbuild/
        \endcode

    \note INTEGRITY supports only static Qt builds.
    \note \c QT_HOST_PATH variable introduced in Qt 6.
          When cross-compiling, this must be set to the install location of Qt for the host platform.
          It is used to locate tools to be run on the host (moc, rcc, androiddeployqt, and so on).

    \section1 Building Qt for INTEGRITY

    Build Qt by calling \c cmake in the terminal. You can run \c cmake with as
    many cores on your host machine as you desire. In our example we use six cores:

    \badcode
        cmake --build . --parallel 6
    \endcode

    \target installing-qt-for-sa8155
    \section1 Installing Qt

    If you have not used the configure option \c {-prefix $PWD/qtbase} in \l {Configuring Qt},
    run the following commands in a terminal:

    \badcode
        cd <Qt installation directory>
        cmake --install .
    \endcode

    If you have used the configure option \c {-prefix $PWD/qtbase},
    you can use Qt from the build directory, without running the
    \c {cmake install} command.

    Qt is now configured and built for the sa8155 board.
*/

/*!
    \page integrity-building-and-flashing-dd-project.html
    \title Building and flashing a Dynamic Download Project
    \previouspage integrity-building-qt-8155p-on-windows.html
    \nextpage integrity-win-monolith.html

    This tutorial will guide you through building an INTEGRITY project for a Qt example
    application on a Windows 10 host. You can select any Qt example application that uses the
    \l {Qt for INTEGRITY#Supported Qt Modules}{Supported Qt modules}.

    \section1 Preparing the Qt application build environment

    Before building the INTEGRITY project, you need to prepare your build environment.
    Run the \c setEnvironment.bat script from the Windows CMD terminal. For more information about the script, see
    \l {Creating a batch script for Windows 10}.

    \badcode
        setEnvironment.bat
    \endcode

    \section1 Building the Qt application example
        To build Qt 6 application using CMake, run the following commands in the Windows CMD terminal:

        \badcode
            "Qt installation path>\bin\qt-cmake.bat" CMakeLists.txt -GNinja
            -DCMAKE_PREFIX_PATH="C:\Users\user\targetbuild"
            -DQt6_DIR="C:\Users\user\targetbuild\lib\cmake\Qt6"
            -DQt6Core_DIR="C:\Users\user\targetbuild\lib\cmake\Qt6Core"
            -DQt6Gui_DIR="C:\Users\user\targetbuild\lib\cmake\Qt6Gui"

             cmake --build .
        \endcode

        Where, \c qt-cmake is the wrapper script that calls CMake to configure your project with appropriate include paths.

    \section1 Creating a Dynamic Download Project in MULTI
        \list
            \li Start MULTI Launcher and select \uicontrol {File} > \uicontrol {Create workspace}.
            \li In the creation window mode select \uicontrol {New Project} and click \uicontrol {OK}.
            \li In the dialog \uicontrol {Project Wizard}, select a path where the new project is to be created e.g. \e C:\\Users\\user\\Documents\\My \e Projects\\Project1\\default.gpj and click \uicontrol {Next}.
            \li Select \e INTEGRITY in \uicontrol {Operating System} dialog and click \uicontrol {Next}.
                \image integrity-os.png "Project creation window dialog."
            \li Select \uicontrol {Finish}.
                \image sa8155-target.png "Qualcom board creation window dialog."
            \li Select \uicontrol {Create New} > \uicontrol {Dynamic Download} > \uicontrol {Next}.
            \li Select \uicontrol {Settings For Dynamic Download} > \uicontrol {Finish}.
                \image dynamic-pro.png "Project tree view."
        \endlist

    \section1 Building a Dynamic Download Project
        \list
            \li Edit and save \e myproject.int file in the project tree:
                \badcode
                    AddressSpace
                      Name qtapp
                      Filename C:\path\to\your\qt\app\binary
                      MemoryPoolSize 0x2700000
                      Language C++
                      HeapSize 0x90000
                      Task Initial
                        StackSize 0x90000
                        StartIt false
                      EndTask
                      Extendedmemorypoolsize 0x300000
                    EndAddressSpace
                \endcode
            \li Create a new file called \e 'multi_commands' and add the following commands to it:
                \badcode
                    switch -component "debugger.task.qtapp.Initial"
                    route "debugger.task.qtapp.Initial" { __ntwcommand prepare_target }
                    wait -load
                    switch -component "debugger.task.qtapp.Initial"
                    route "debugger.task.qtapp.Initial" { __ntwcommand resume }
                    wait -time 240000 -stop
                    switch -component "debugger.task.qtapp.Initial"
                    unload myproject
                    wait -time 8000 -stop
                    savedebugpane cmd "autotestresult.txt"
                    quitall
                \endcode
            \li Run building and loading commands from the Windows CMD terminal:
                \badcode
                    multi.exe "C:\Users\user\Documents\My Projects\Project1\default.gpj" -build myproject &
                    multi.exe "C:\Users\user\Documents\My Projects\Project1\dbg\bin\myproject" -connect="rtserv2 192.168.1.1" -p C:\Users\user\multi_commands &
                \endcode
                \image dynamic-loaded-pro.png "MULTI IDE binary load window."
                \note \e {"rtserv2 192.168.1.1"} is a board IP address. Check \l {Set up the wiring} to set up the board network.
                \note It takes several minutes to deploy by Dynamic Download.
        \endlist
*/
