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Welcome to Harbour

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Harbour is the open/free software implementation of a cross-platform, multi-threading, object-oriented, scriptable programming language, backwards compatible with xBase languages. Harbour consists of a compiler and runtime libraries with multiple UI, database and I/O backends, its own build system and a collection of libraries and bindings for popular APIs.

Table of Content

  1. How to Donate
  2. How to Get
  3. How to Build
  4. How to Do a Partial Build
  5. How to Create Packages for Distribution
  6. How to Enable Optional Components
  7. Build Options
  8. Build Examples
  9. Build Your Own Harbour App
  10. Debugging Options
  11. Supported Platforms and C Compilers
  12. Platform Matrix
  13. External Links
  14. Harbour Links
  15. Guarantees and Liability

How to Donate

You can donate to fund further maintenance of this fork:

PayPal

Thanks to all who did!

Maintainer contacts

How to Get

Stable versions (non-fork/mainline)

Harbour stable binary download

https://github.com/vszakats/harbour-core/releases/tag/v3.0.0

NOTE: It is identical to the mainline stable release, but not supported or recommended by this fork.

Harbour stable source download

https://github.com/vszakats/harbour-core/archive/v3.0.0.zip

Unstable versions

💡 TIP: For users contributing to development, it's recommended to follow commits and reading ChangeLog.txt.

Harbour live source repository

You will need Git version control software installed on your system and to issue this command (remove the --depth option to clone the complete history — useful for development):

git clone --depth=10 https://github.com/vszakats/harbour-core.git harbour-core

You can get subsequent updates using this command:

git pull

Harbour unstable sources

Download source archive from any of these URLs and unpack:

Harbour unstable binaries (updated after each commit)

Windows (MinGW, 64-bit hosted, 32/64-bit targets, 7-zip archive)

Mac (using Homebrew 🍺)

brew install https://raw.githubusercontent.com/vszakats/harbour-core/master/package/harbour-vszakats.rb --HEAD

Follow commits using:

How to Build

For all platforms you will need:

  • Supported ANSI C89 compiler
  • GNU Make (3.81 or upper)
  • Harbour sources

on Windows hosts

Platform specific prerequisites:

  1. Windows 7 or upper system is recommended to build Harbour. (64-bit edition is also recommended to make things simpler)
  2. Consider using the binary release. On Windows, this is easier and recommended for most use-cases. You can still rebuild specific contribs this way.
  3. Make sure to have your C compiler of choice installed in PATH. Refer to your C compiler installation and setup instructions for details. Make sure no tools in your PATH belonging to other C compilers are interfering with your setup. Also avoid to keep multiple copies of the same compiler, or different versions of the same compiler in PATH at the same time. For the list of supported compilers, look up Supported Platforms and C Compilers.
  4. A native build of GNU Make is required. It is usually named mingw32-make.exe. It's distributed in MSYS2, mingw-w64 packages. You can find download links here. Unpack it to your PATH or Harbour source root directory, and run it as mingw32-make.

To build:

$ mingw32-make

To test it, type:

$ cd tests
$ ..\bin\<plat>\<comp>\hbmk2 hello.prg
$ hello

You should see Hello, world! on screen.

on Windows hosts with POSIX shells (MSYS2)

To build:

$ sh -c make

To test it, type:

$ cd tests
$ ..\bin\<plat>\<comp>\hbmk2 hello.prg
$ hello

You should see Hello, world! on screen.

on Linux hosts (possible cross-build targets: Windows, Windows CE, MS-DOS, OS/2)

To build:

$ make [HB_PLATFORM=<...>]

To test it, type:

$ cd tests
$ ../bin/<plat>/<comp>/hbmk2 hello.prg
$ ./hello

You should see Hello, world! on screen.

on Darwin (Mac) hosts (possible cross-build targets: Windows)

Platform specific prerequisite: Xcode or Command Line Tools for Xcode installed

To build:

$ make [HB_PLATFORM=<...>]

To test it, type:

$ cd tests
$ ../bin/<plat>/<comp>/hbmk2 hello.prg
$ ./hello

You should see Hello, world! on screen.

You can override default (host) architecture by adding values below to HB_USER_CFLAGS, HB_USER_LDFLAGS envvars, you can use multiple values:

Intel 32-bit: -arch i386
Intel 64-bit: -arch x86_64

on FreeBSD hosts

Platform specific prerequisites:

  1. You will need to have the developer tools installed.

  2. Then you will need to install gmake and optionally bison:

     $ pkg install gmake bison
    

To build:

$ gmake

To test it, type:

$ cd tests
$ ../bin/<plat>/<comp>/hbmk2 hello.prg
$ ./hello

You should see Hello, world! on screen.

on Minix hosts

Install GNU make from the Minix pkgsrc repository; for details see here.

Optionally, GCC may also be installed if you wish to use that instead of Clang, the Minix system compiler.

on other *nix hosts

To build:

$ gmake [HB_PLATFORM=<...>]

Or

$ make [HB_PLATFORM=<...>]

To test it, type:

$ cd tests
$ ../bin/<plat>/<comp>/hbmk2 hello.prg
$ ./hello

You should see Hello, world! on screen.

For sunpro on Solaris:
If you have any GNU binutils stuff installed, do make sure /usr/ccs/bin (the location of the native Sun C compilation system tools) come before the GNU binutils components in your $PATH.

How to Do a Partial Build

If you want to build only a specific part of Harbour, like one core library or all core libraries, or all contrib packages, you have to do everything the same way as for a full build, the only difference is that you first have to go into the specific source directory you'd like to build. When starting GNU Make, all components under that directory will be built:

cd src/rtl
<make> [clean]

If you want to rebuild one specific contrib package, use this:

On *nix systems

$ cd contrib/<name>
$ make.hb [clean] [custom hbmk2 options]

On Windows

$ cd contrib/<name>
$ hbmk2 make.hb [clean] [custom hbmk2 options]

Where make.hb and hbmk2 must be in PATH.

How to Create Packages for Distribution

Source .tgz on *nix

$ package/mpkg_src.sh

Binary .tgz on *nix

$ export HB_BUILD_PKG=yes
$ make clean install

Binary .deb on Linux

$ fakeroot debian/rules binary

Binary .rpm on Linux

$ package/mpkg_rpm.sh

You can fine-tune the build with these options:

--with static      - link all binaries with static libs
--with localzlib   - build local copy of zlib library
--with localpcre2  - build local copy of pcre2 library
--with localpcre1  - build local copy of pcre1 library
--without x11      - do not build components dependent on x11 (gtxwc)
--without curses   - do not build components dependent on curses (gtcrs)
--without slang    - do not build components dependent on slang (gtsln)
--without gpllib   - do not build components dependent on GPL 3rd party code
--without gpm      - build components without gpm support (gttrm, gtsln, gtcrs)

Binary .rpm on Linux (cross-builds)

for Windows

$ package/mpkg_rpm_win.sh

for Windows CE

$ package/mpkg_rpm_wce.sh

Binary .7z archive on Windows for all targets (except Linux)

$ set HB_DIR_7Z=C:\7-zip\
$ set HB_BUILD_PKG=yes

Then run build as usual with clean install options. See: How to Build

How to Enable Optional Components

Certain Harbour parts — typically contrib packages — depend on 3rd party components. To make these Harbour parts built, you need to tell Harbour where to find the headers for these 3rd party components.

On *nix systems most of these 3rd party components will automatically be used if installed on well-known standard system locations.

You only need to use manual setup if the dependency isn't available on your platform on a system location, or you wish to use a non-standard location. Typically, you need to do this on non-*nix (e.g. Windows) systems for all packages and for a few packages on *nix which are not available via official package managers (e.g. ADS Client).

Note that Harbour is tuned to use 3rd party binary packages in their default, unmodified — "vanilla" — install layout created by their official/mainstream install kits. If you manually move, rename, delete, add files under the 3rd party packages' root directory, or use a source package, the default Harbour build process (especially Windows implib generation) might not work as expected.

You can set these environment variables before starting the build. Make sure to adjust them to your own directories:

HB_WITH_CURSES= (on \*nix systems and DJGPP, auto-detected on both)
HB_WITH_GPM= (on Linux only)
HB_WITH_PCRE2=C:\pcre2 (defaults to locally hosted copy if not found)
HB_WITH_PCRE=C:\pcre (defaults to locally hosted copy if not found)
HB_WITH_PNG=C:\libpng (defaults to locally hosted copy if not found)
HB_WITH_SLANG= (on \*nix systems)
HB_WITH_WATT= (on MS-DOS systems)
HB_WITH_X11= (on \*nix systems)
HB_WITH_ZLIB=C:\zlib (defaults to locally hosted copy if not found)

To explicitly disable any given components, use the value no. This may be useful to avoid auto-detection of installed packages on *nix systems. You may also use the value local to force using the locally hosted copy (inside Harbour source repository) of these packages, where applicable. nolocal will explicitly disable using locally hosted copy.

See contrib-specific dependencies and build notes in the projects' .hbp file and find occasional link notes inside their .hbc files.

NOTES:

  • you need to use path format native to your shell/OS
  • don't put directory names inside double quotes
  • use absolute paths

Darwin (Mac)

  1. Install Homebrew 🍺

  2. Install packages:

     $ brew install valgrind pcre pcre2 s-lang upx uncrustify optipng jpegoptim
    
  3. Install X11 (optional, for gtxwc)

     $ brew cask install xquartz
    

Linux (.deb based distros: Debian, *buntu)

You will need these base packages to build/package/test/use Harbour:

  bash git gcc binutils fakeroot debhelper valgrind upx uncrustify p7zip-full

You will need these packages to compile optional core Harbour features:

  for gtcrs terminal lib:    libncurses-dev
  for gtsln terminal lib:    libslang2-dev OR libslang1-dev
  for gtxwc terminal lib:    libx11-dev
  for console mouse support: libgpm-dev OR libgpmg1-dev

Optional, to override locally hosted sources:

  for zlib support:          zlib1g-dev
  for pcre2 (regex) support: libpcre2-dev
  for pcre1 (regex) support: libpcre3-dev

Linux (.rpm based distros: openSUSE, Fedora, CentOS)

You will need these base packages to build/package/test/use Harbour:

  bash git gcc make glibc-devel rpm-build valgrind upx uncrustify p7zip

You will need these packages to compile optional core Harbour features:

  for gtcrs terminal lib:    ncurses-devel ncurses
  for gtsln terminal lib:    slang-devel slang
  for gtxwc terminal lib:    xorg-x11-devel OR XFree86-devel
  for console mouse support: gpm-devel OR gpm

pacman based systems (Windows/MSYS2, Arch Linux)

For Windows/MSYS2 environment:

  git base-devel msys2-devel mingw-w64-{x86_64,i686}-toolchain upx uncrustify p7zip

Packages for optional core Harbour features:

  for gtcrs terminal lib:    ncurses
  for gtsln terminal lib:    slang
  for gtxwc terminal lib:    libx11
  for console mouse support: gpm

NOTES:

  • See this on package management in various distros.
  • On openSUSE, if you want to build 32-bit Harbour on a 64-bit host, install above packages with -32bit suffix, e.g. slang-devel-32bit

OpenSolaris

$ pkg install SUNWgit SUNWgcc SUNWgmake

FreeBSD

If you want to use the gtsln library instead of gtstd or gtcrs, then you also need to install libslang. If you installed the ports collection, then all you need to do to install libslang is to run the following commands, which may require that you run su first to get the correct permissions:

$ pkg install libslang2

Build Options

You can fine-tune Harbour builds with below listed environment variables. You can add most of these via the GNU Make command-line also, using make VARNAME=value syntax. All of these settings are optional and all settings are case-sensitive.

General

  • HB_BUILD_VERBOSE=yes

    Enable verbose build output. Redirect it to file by appending this to the build command: > log.txt 2>&1
    Default: no

  • HB_PLATFORM Override platform auto-detection

  • HB_COMPILER Override C compiler auto-detection

    Set these only if auto-detection doesn't suit your purpose.

    See this for possible values: Supported Platforms and C Compilers
    See also: HB_CC* settings.

  • HB_BUILD_CONTRIBS=no [<l>]

    Do not build any, or space separated <l> list of, contrib packages. Please note that packages which are dependencies of other — enabled — packages will still be built, unless their dependents are disabled as well.

  • HB_BUILD_CONTRIBS=[<l>]

    Build space separated <l> list of contrib libraries. Build all if left empty (default).

  • HB_BUILD_STRIP=[all|bin|lib|no]

    Strip symbols and debug information from binaries. Default: no

  • HB_BUILD_3RDEXT=no

    Enable auto-detection of 3rd party components on default system locations. Default: yes

  • HB_BUILD_NOGPLLIB=yes

    Disable components dependent on GPL 3rd party code, to allow using Harbour for nonfree/proprietary projects. Default: no

  • HB_CCPATH=[<dir>/]

    Used with non-*nix gcc family compilers (and sunpro) to specify path to compiler/linker/archive tool to help them run from *nix hosts as cross-build tools. Ending slash must be added.

  • HB_CCPREFIX=[<prefix>]

    Used with gcc compiler family to specify compiler/linker/archive tool name prefix.

  • HB_CCSUFFIX=[<suffix>]

    Used with gcc/clang compiler families to specify compiler/linker tool name suffix — usually version number.

  • HB_INSTALL_PREFIX

    Target root directory to install Harbour files. On *nix systems the default is set to /usr/local/ or $(PREFIX) if specified, and /usr/local/harbour-<arch>-<comp> for cross-builds. It's always set to ./pkg/<arch>/<comp> when HB_BUILD_PKG is set to yes. On non-*nix systems, you must set it to a valid directory when using install. Use absolute paths only. You have to use path format native to your shell. E.g. to specify C:\dir on Windows.

    WARNING:

    Harbour is fully functionaly on all platforms, without installing it to any other directory. On *nix systems, if you must install, please use a stable installer package instead.

For developing Harbour itself

  • HB_USER_PRGFLAGS User Harbour compiler options

  • HB_USER_CFLAGS User C compiler options

  • HB_USER_RESFLAGS User resource compiler options (on win, wce, os2)

  • HB_USER_LDFLAGS User linker options for executables

  • HB_USER_AFLAGS User linker options for libraries

  • HB_USER_DFLAGS User linker options for dynamic libraries

  • HB_BUILD_DEBUG=yes

    Create debug build. Default: no

  • HB_BUILD_OPTIM=no

    Enable C compiler optimizations. Default: yes

  • HB_BUILD_PKG=yes

    Create release package. Default: no Requires clean install in root source dir.

  • HB_BUILD_CONTRIB_DYN=yes

    Create contrib dynamic libraries (in addition to static). Default: no, except Windows and darwin platforms, where it's yes.

  • HB_BUILD_3RD_DYN=yes

    Create dynamic libraries of vendored 3rd party libaries (in addition to static). Default: no

  • HB_BUILD_SHARED=yes

    Create Harbour executables in shared mode. Default: yes on non-*nix platforms that support is and on *nix when HB_INSTALL_PREFIX points to a system location, otherwise no.

  • HB_BUILD_PARTS=[all|compiler|lib]

    Build only specific part of Harbour.

  • HB_BUILD_NAME=[<name>]

    Create named build. This allows keeping multiple builds in parallel for any given platform/compiler. E.g. debug / release.

    In current implementation it's appended to compiler directory name, so all file-system/platform name rules and limits apply. (Back)slashes will be stripped from the name though.

  • HB_USER_LIBS=[<list>]

    Add space separated <list> of libs to link process. Lib names should be without extension and path. You only need this in special cases, like CodeGuard build with win/bcc.

  • HB_BUILD_LIBPATH

    Use extra library path when building contrib packages. It will be passed to hbmk2 via its -L option, after any other custom option.

  • HB_INSTALL_IMPLIB=no

    Copy import libraries created for external .dll dependencies to the library install directory in install build phase. Default: yes
    For Windows and OS/2 targets only. Please note that this feature doesn't work with all possible binary distributions of 3rd party packages. We test only the official/mainstream ones. Also note that the generated implibs will require .dlls compatible with the ones used at build time.

  • HB_INSTALL_3RDDYN=yes

    Copy dynamic libraries of external .dll dependencies to the dynamic library directory in install build phase. Default: no

  • HB_REBUILD_EXTERN=yes

    Rebuild extern headers. It is meant for developers doing Harbour code modifications and releases. Default: no

  • HB_REBUILD_PARSER=yes

    Rebuild language parser sources. You only need this if your are Harbour core developer modifying grammar rules (.y). Requires GNU Bison 1.28 or upper in PATH. Default: no

  • HB_BUILD_MODE=[cpp|c]

    Set default build mode to C++ or C. Default: c

    This option serves only to test Harbour code base for issues revealed by stricter C++ compiler rules and/or for C/C++ interoperability issues. C++ mode is deprecated and not supported for production use.

  • HB_BUILD_POSTRUN_HOST=[<l>]

    Run space separated <l> list of commands after successfully finishing a build. Commands will be run in the host binary directory.

  • HB_BUILD_POSTRUN=[<l>]

    Run space separated <l> list of commands after successfully finishing a build. Commands will be run in the target binary directory if possible to run on the host platform.

Cross-builds

You can build Harbour for target platforms different from host platform. E.g. you can create Windows build on *nix systems, Linux builds on Windows systems, etc. It's also possible to build targets for different from host CPU architectures. E.g. you can create Windows 64-bit build on 32-bit Windows platform, or Linux x86-64 build on x86 hosts, or Linux MIPS build on x86 host, etc.

Point this envvar to the directory where native Harbour executables for your host platform can be found:

  HB_HOST_BIN=<path-to-harbour-native-build>\bin

If you leave this value empty, the make system will try to auto-detect it, so in practice all you have to do is to create a native build first (no install required), then create the cross-build. If you set this value manually, it may be useful to know that harbour, hbpp and hbmk2 executables are required for a cross-build process to succeed.

Build Examples

on Windows 64-bit hosts

NOTES:

  • All code below should be copied to batch files or typed at command-line.
  • Naturally, you will need to adapt path names to valid ones on your system.
  • You can use additional clean, install or clean install make parameters depending on what you want to do.
  • To redirect all output to a log file, append this after the make command: > log.txt 2>&1
:: MinGW-w64 LLVM/Clang via MSYS2 (x86 target)
set PATH=C:\msys64\mingw32\bin;C:\msys64\usr\bin;%PATH%
set HB_COMPILER=clang
mingw32-make
:: MinGW-w64 LLVM/Clang via MSYS2 (x64 target)
set PATH=C:\msys64\mingw64\bin;C:\msys64\usr\bin;%PATH%
set HB_COMPILER=clang64
mingw32-make
:: MinGW-w64 GCC via MSYS2 (x86 target)
set PATH=C:\msys64\mingw32\bin;C:\msys64\usr\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC via MSYS2 (x64 target)
set PATH=C:\msys64\mingw64\bin;C:\msys64\usr\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC (x86 target)
set PATH=C:\mingw\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC (x64 target)
set PATH=C:\mingw64\bin;%PATH%
mingw32-make
:: MSVC 2017 or upper
:: For configuration, see:
::   https://docs.microsoft.com/cpp/build/setting-the-path-and-environment-variables-for-command-line-builds
:: Then:
mingw32-make
:: MSVC 2015 (x86 target)
call "%ProgramFiles(x86)%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat"
mingw32-make
:: MSVC 2015 (x64 target)
call "%ProgramFiles(x86)%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat" x86_amd64
mingw32-make
:: Open Watcom C/C++
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINNT64;%WATCOM%\BINNT;%PATH%
set INCLUDE=%WATCOM%\H;%WATCOM%\H\NT;%WATCOM%\H\NT\DIRECTX;%WATCOM%\H\NT\DDK;%INCLUDE%
mingw32-make
:: LLVM/Clang-cl (pre-experimental)
call "%ProgramFiles(x86)%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat"
set PATH=%ProgramFiles(x86)%\LLVM 3.6.svn;%PATH%
mingw32-make
:: Intel(R) C++ (x86 target)
call "%ProgramFiles(x86)%\Intel\Compiler\11.1\054\bin\ia32\iclvars_ia32.bat"
mingw32-make
:: Intel(R) C++ (x64 target)
call "%ProgramFiles(x86)%\Intel\Compiler\11.1\054\bin\intel64\iclvars_intel64.bat"
mingw32-make

on Windows 32-bit hosts

Same as 64-bit Windows, with the difference that you will have to change %ProgramFiles(x86)% to %ProgramFiles% for 32-bit and mixed tools. Building 64-bit targets requires a preceding 32-bit build and to do a cross-build. It's recommended to use a 64-bit environment for Windows development.

:: MinGW-w64 LLVM/Clang via MSYS2 (x86 target)
set PATH=C:\msys64\mingw32\bin;C:\msys64\usr\bin;%PATH%
set HB_COMPILER=clang
mingw32-make
:: MinGW-w64 LLVM/Clang via MSYS2 (x64 target)
:: (requires preceding build for x86 target)
set PATH=C:\msys64\mingw64\bin;C:\msys64\usr\bin;%PATH%
set HB_COMPILER=clang64
mingw32-make
:: MinGW-w64 GCC via MSYS2 (x86 target)
set PATH=C:\msys64\mingw32\bin;C:\msys64\usr\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC via MSYS2 (x64 target)
:: (requires preceding build for x86 target)
set PATH=C:\msys64\mingw64\bin;C:\msys64\usr\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC (x86 target)
set PATH=C:\mingw\bin;%PATH%
mingw32-make
:: MinGW-w64 GCC (x64 target)
:: (requires preceding build for x86 target)
set PATH=C:\mingw64\bin;%PATH%
mingw32-make
:: MSVC 2017 or upper
:: For configuration, see:
::   https://docs.microsoft.com/cpp/build/setting-the-path-and-environment-variables-for-command-line-builds
:: Then:
mingw32-make
:: MSVC 2015 (x86 target)
call "%ProgramFiles%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat"
mingw32-make
:: MSVC 2015 (x64 target)
:: (requires preceding build for x86 target)
call "%ProgramFiles%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat" x86_amd64
mingw32-make
:: MinGW GCC (Windows CE ARM target)
:: (requires Cygwin + preceding build for x86 target)
set PATH=C:\mingwce\opt\mingw32ce\bin;C:\cygwin\bin;%PATH%
:: optional:
set CYGWIN=nodosfilewarning
mingw32-make
:: Delorie GNU C for MS-DOS
set DJGPP=C:\djgpp\djgpp.env
set PATH=C:\djgpp\bin;%PATH%
mingw32-make
:: Open Watcom C/C++
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINNT;%WATCOM%\BINW;%PATH%
set INCLUDE=%WATCOM%\H;%WATCOM%\H\NT;%WATCOM%\H\NT\DIRECTX;%WATCOM%\H\NT\DDK;%INCLUDE%
mingw32-make
:: Open Watcom C/C++ for MS-DOS
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINNT;%PATH%
set INCLUDE=%WATCOM%\H
mingw32-make
:: Open Watcom C/C++ for OS/2
:: (requires preceding build for Windows target)
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINNT;%WATCOM%\BINW;%PATH%
set INCLUDE=%WATCOM%\H;%WATCOM%\H\OS2
set BEGINLIBPATH=%WATCOM%\BINP\DLL
mingw32-make
:: Open Watcom C/C++ for Linux
:: (requires preceding build for Windows target)
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINNT;%WATCOM%\BINW;%PATH%
set INCLUDE=%WATCOM%\LH
mingw32-make
:: LLVM/Clang-cl (pre-experimental)
call "%ProgramFiles%\Microsoft Visual Studio 14.0\VC\vcvarsall.bat"
set PATH=%ProgramFiles%\LLVM 3.6.svn;%PATH%
mingw32-make
:: VxWorks GCC x86
:: (requires preceding build for Windows target)
wrenv -p vxworks-6.8
set HB_COMPILER=gcc
mingw32-make
:: VxWorks GCC ARM
:: (requires preceding build for Windows target)
wrenv -p vxworks-6.8
set HB_COMPILER=gcc
set HB_CPU=arm
set HB_BUILD_NAME=arm
mingw32-make
:: VxWorks Wind River Compiler x86
:: (requires preceding build for Windows target)
wrenv -p vxworks-6.8
set HB_COMPILER=diab
mingw32-make
rem Open Watcom C/C++
set WATCOM=C:\watcom
set PATH=%WATCOM%\BINP;%WATCOM%\BINW;%PATH%
set INCLUDE=%WATCOM%\H;%WATCOM%\H\OS2
set BEGINLIBPATH=%WATCOM%\BINP\DLL
os2-make

on Linux hosts

# Open Watcom C/C++ for OS/2
# (requires preceding build for Linux target)
export WATCOM="/opt/lng/watcom"
export PATH="${WATCOM}/binl:$PATH"
export INCLUDE="${WATCOM}/h:${WATCOM}/h/os2"
export HB_BUILD_3RDEXT=no
make

on *nix hosts in general

make
# MinGW GCC for Windows x86
make HB_PLATFORM=win
# MinGW GCC for Windows CE ARM
make HB_PLATFORM=wce

Build Your Own Harbour App

For all platforms you will need two things:

  • Harbour binaries

    Either a Harbour binary distribution or a local Harbour build will be okay. If you're reading this text, it's likely you have one of these already.

  • Supported ANSI C89 compiler

    Your compiler of choice has to be placed in the PATH — and configured appropriately according to instructions. If you use official Harbour binary distribution on Windows, you already have MinGW compiler embedded in the installation, which will automatically be used, so you don't have to make any extra steps here.

Use hbmk2 to build your app from source. It's recommended to put it in the PATH (e.g. by using set PATH=C:\hb\bin;%PATH% on Windows).

See hbmk2 documentation, with examples.

Debugging Options

Tracing

Build Harbour with:

HB_BUILD_DEBUG=yes

Run app with:

HB_TR_LEVEL=debug
# to override default STDERR output:
HB_TR_OUTPUT=<filename>
# to enable additional system specific logging output,
# OutputDebugString() on Windows, syslog() on \*nix systems:
HB_TR_SYSOUT=yes

Memory statistics/tracking

Build Harbour with:

HB_USER_CFLAGS=-DHB_FM_STATISTICS

Valgrind (on linux and darwin targets)

Build Harbour with:

HB_BUILD_DEBUG=yes

Build app with:

$ hbmk2 myapp -debug

Run app with:

$ valgrind --tool=memcheck --leak-check=yes --num-callers=16 -v ./myapp 2> myapp.log

CodeGuard (on win/bcc target only)

Build Harbour with:

HB_USER_CFLAGS=-vG
HB_USER_LIBS=cg32

Harbour Debugger

Build app with:

$ hbmk2 myapp -b -run

or run script with:

$ hbrun myapp --hb:debug

Press <Alt+D> in the app.

Supported Platforms and C Compilers

You can override target platform auto-detection with these HB_PLATFORM values:

  • linux - Linux
  • darwin - macOS / iOS / tvOS
  • bsd - *BSD
  • android - Android
  • win - MS Windows (Win9x deprecated)
  • wce - MS Windows CE
  • dos - MS-DOS (32-bit protected mode only) (MS-DOS compatible systems also work, like dosemu)
  • os2 - OS/2 Warp 4 / eComStation
  • aix - IBM AIX
  • hpux - HP-UX
  • sunos - Sun Solaris / OpenSolaris
  • qnx - QNX (experimental)
  • vxworks - VxWorks (experimental)
  • minix - Minix 3 (experimental, tested on 3.2.1; earlier releases will not work)
  • cygwin - Cygwin (experimental)
  • beos - BeOS / Haiku (deprecated)

You can override C compiler auto-detection with these HB_COMPILER values:

linux

  • gcc - GNU C
  • clang - LLVM/Clang
  • watcom - Open Watcom C/C++
  • icc - Intel(R) C/C++
  • sunpro - Sun Studio C/C++
  • open64 - Open64 C/C++

darwin

  • clang - Apple LLVM/Clang
  • gcc - GNU C
  • icc - Intel(R) C/C++

bsd

  • gcc - GNU C
  • clang - LLVM/Clang
  • pcc - Portable C Compiler (experimental)

android

  • gcc - GNU C x86
  • gccarm - GNU C ARM

win

  • clang - LLVM/Clang (5.0.0 and above)
  • clang64 - LLVM/Clang x86-64 (5.0.0 and above)
  • mingw - MinGW GNU C (4.4.0 and above, 6.x or newer recommended)
  • mingw64 - MinGW GNU C x86-64
  • msvc - Microsoft Visual C++ (2013 and above)
  • msvc64 - Microsoft Visual C++ x86-64 (2013 and above)

win (experimental)

  • clang-cl - LLVM/Clang-cl
  • clang-cl64 - LLVM/Clang-cl x86-64
  • watcom - Open Watcom C/C++
  • icc - Intel(R) C/C++
  • icc64 - Intel(R) C/C++ x86-64

win (deprecated)

  • bcc - Borland/CodeGear/Embarcadero C++ 5.5 and above
  • bcc64 - Embarcadero C++ 6.5 and above
  • pocc - Pelles C 4.5 and above
  • pocc64 - Pelles C x86-64 5.0 and above
  • xcc - Pelles C for xHarbour
  • iccia64 - Intel(R) C/C++ IA-64 (Itanium)
  • msvcia64 - Microsoft Visual C++ IA-64 (Itanium)

wce

  • mingw - MinGW GNU C x86
  • mingwarm - MinGW GNU C ARM (CEGCC 0.55 and above)
  • msvcarm - Microsoft Visual C++ ARM
  • poccarm - Pelles C ARM 5.0 and above (deprecated)

dos

  • djgpp - Delorie GNU C
  • watcom - Open Watcom C/C++

os2

  • gcc - EMX GNU C 3.3.5 or lower
  • gccomf - EMX GNU C 3.3.5 or upper
  • watcom - Open Watcom C/C++

aix

  • gcc - GNU C

hpux

  • gcc - GNU C

sunos

  • gcc - GNU C
  • sunpro - Sun Studio C/C++

qnx (experimental)

  • gcc - GNU C

vxworks (experimental)

  • gcc - GNU C
  • diab - Wind River Compiler

minix (experimental)

  • clang - LLVM/Clang
  • gcc - GNU C

cygwin (experimental)

  • gcc - GNU C

beos (deprecated)

  • gcc - GNU C

Platform Matrix

host
platform
target
platform/compiler
target CPU
linux linux/gcc (CPU cross-builds possible)
linux linux/clang (CPU cross-builds possible)
linux linux/icc (CPU cross-builds possible: x86, x86-64, ia64)
linux linux/sunpro (CPU cross-builds possible: x86, x86-64)
linux linux/open64 (CPU cross-builds possible: x86-64, ia64, ...)
linux wce/mingwarm arm
linux wce/mingw x86
linux win/mingw x86
linux win/mingw64 x86-64
linux win/watcom x86
linux os2/watcom x86
linux dos/watcom x86
linux dos/djgpp x86
linux android/gcc x86
linux android/gccarm arm
linux vxworks/gcc (CPU cross-builds possible: x86, arm, mips, ppc)
linux vxworks/diab (CPU cross-builds possible: x86, arm, mips, ppc, sparc)
win win/clang x86
win win/clang64 x86-64
win win/mingw x86
win win/mingw64 x86-64
win win/msvc x86
win win/msvc64 x86-64
win wce/mingwarm arm
win wce/msvcarm arm
win dos/djgpp x86 (on Windows x86 hosts only)
win dos/watcom x86
win os2/watcom x86
win linux/watcom x86
win android/gcc x86
win android/gccarm arm
win vxworks/gcc (CPU cross-builds possible: x86, arm, mips, ppc)
win vxworks/diab (CPU cross-builds possible: x86, arm, mips, ppc, sparc)
win cygwin/gcc x86
win win/clang-cl x86 (experimental)
win win/clang-cl64 x86-64 (experimental)
win win/icc x86 (experimental)
win win/icc64 x86-64 (experimental)
win win/watcom x86 (experimental)
win win/bcc x86 (deprecated)
win win/bcc64 x86-64 (deprecated)
win win/iccia64 ia64 (deprecated)
win win/msvcia64 ia64 (deprecated)
win win/pocc x86 (deprecated)
win win/pocc64 x86-64 (deprecated)
win wce/poccarm arm (deprecated)
win win/xcc x86 (deprecated)
os2 os2/gcc x86
os2 os2/watcom x86
os2 win/watcom x86
os2 dos/watcom x86
os2 linux/watcom x86
darwin darwin/clang (CPU cross-builds possible: x86, x86-64, unibin)
darwin darwin/gcc (CPU cross-builds possible: x86, x86-64, ppc, ppc64, unibin)
darwin darwin/icc (CPU cross-builds possible: x86, x86-64)
darwin wce/mingwarm arm
darwin wce/mingw x86
darwin win/mingw x86
darwin win/mingw64 x86-64
darwin dos/djgpp x86
darwin android/gcc x86
darwin android/gccarm arm
bsd bsd/gcc (CPU cross-builds possible)
bsd bsd/clang (CPU cross-builds possible)
bsd bsd/pcc (experimental)
bsd wce/mingwarm arm
bsd wce/mingw x86
bsd win/mingw x86
bsd dos/djgpp x86
hpux hpux/gcc (CPU cross-builds possible)
qnx qnx/gcc (CPU cross-builds possible - not tested)
beos beos/gcc x86
hpux wce/mingwarm arm
hpux wce/mingw x86
hpux win/mingw x86
hpux dos/djgpp x86
minix minix/clang x86
minix minix/gcc x86
aix aix/gcc (CPU cross-builds possible: ppc, ppc64)
sunos sunos/gcc (CPU cross-builds possible)
sunos sunos/sunpro (CPU cross-builds possible: x86, x86-64, sparc32, sparc64)
sunos wce/mingwarm arm
sunos wce/mingw x86
sunos win/mingw x86
sunos dos/djgpp x86
sunos vxworks/gcc (CPU cross-builds possible: x86, arm, mips, ppc)
sunos vxworks/diab (CPU cross-builds possible: x86, arm, mips, ppc, sparc)

Supported shells per host platforms:

  • *nix / POSIX shell
  • win / NT shell (cmd.exe)
  • win / POSIX shell (MSYS2 sh.exe)
  • win / MS-DOS shell (command.com)
  • dos / MS-DOS shell (command.com)
  • dos / POSIX shell (bash.exe)
  • os/2 / OS/2 shell (cmd.exe)
  • os/2 / POSIX shell (bash.exe)

External Links

Harbour Links

Guarantees and Liability

This document and all other parts of Harbour are distributed in the hope they will be useful, but WITHOUT GUARANTEE that they are complete, accurate, non-infringing or usable for any purpose whatsoever. Contributors are NOT LIABLE for any damages that result from using Harbour in any ways. For more legal details, see LICENSE.

If you feel you can make Harbour better: contribute. See how.

Information in this document is subject to change without notice and does not represent any future commitment by the participants of the project.

This and related documents use the term "recommended" for practices and tools tested most, focused on, used and deployed by the maintainer/developer of this fork. While this is strongly believed to result in the best Harbour experience for most situations, it's ultimately a subjective decision. If you don't like it, use what fits your case best.


This document Copyright © 2009–present Viktor Szakats
Creative Commons Attribution-ShareAlike 4.0

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