Software Technology Lab (STLab) Library Source Code Repository
ASL libraries will be migrated here in the stlab
namespace, new libraries will be created here.
Branch states
Content
Concurrency
This library provides futures and channels, high level abstractions for implementing algorithms that eases the use of multiple CPU cores while minimizing contention. This library solves several problems of the C++11 and C++17 TS futures.
Documentation
The complete documentation is available on the STLab home page.
Release changelogs are listed in CHANGES.md.
Tested on
- Linux with GCC 11
- Linux with Clang 14
- MacOS 11 with Apple-clang 13.0.0
- Windows with Visual Studio 16
Requirements
- A standards-compliant C++14, C++17, or C++20 compiler
- Use with a compiler in C++14-compliant mode requires Boost.Optional and Boost.Variant >= 1.74.0
- Building the library requires CMake 3.23 or later
- Testing or developing the library requires Boost.Test >= 1.74.0
Building
STLab is a standard CMake project. See the running CMake tutorial for an introduction to this tool.
Preparation
-
Create a build directory outside this library's source tree. In this guide, we'll use a sibling directory called
BUILD
. -
If you are using the library in C++14-compliant mode or need to run the test suite, be sure you have the necessary parts of Boost >= 1.74.0 installed. Linux distributions usually make a suitable version available through standard package managers. On macOS or Linux, you can easilly install Boost using Homebrew. To install Boost on Windows, you can use Boost's binary installers.
-
Install a version of CMake >= 3.23. If you are on Debian or Ubuntu Linux you may need to use
snap
to find one that's new enough. -
If you are using MSVC, you may need to set environment variables appropriately for your target architecture by invoking
VCVARSALL.BAT
with an appropriate option.
Configure
Run CMake in the root directory of this project, setting ../BUILD
as your build directory. The
basis of your command will be
cmake -S . -B ../BUILD -DCMAKE_BUILD_TYPE=# SEE BELOW
but there are other options you may need to append in order to be successful. Among them:
-DCMAKE_BUILD_TYPE=
[Release
|Debug
] to build the given configuration (required unless you're using visual studio or another multi-config generator).-DCMAKE_CXX_STANDARD=
[14
|17
|20
|23
] to build with compliance to the given C++ standard.-DBUILD_TESTING=OFF
if you only intend to build, but not test, this library.-DBoost_USE_STATIC_LIBS=TRUE
if you will be testing on Windows.
We also suggest the installation of Ninja and its use by adding
-GNinja
to your cmake command lineโฆ but ninja is not required.
A typical invocation might look like this:
cmake -S . -B ../BUILD -GNinja -DCMAKE_CXX_STANDARD=17 -DCMAKE_BUILD_TYPE=Release -DBUILD_TESTING=OFF
If you organize the build directory into subdirectories you can support multiple configurations.
cmake -S . -B ../builds/portable -GXcode -DCMAKE_CXX_STANDARD=17 -DBUILD_TESTING=ON -DSTLAB_TASK_SYSTEM=portable
Build
If your configuration command was successful, go to your build directory (cd ../BUILD
) and invoke:
cmake --build .
Testing
Running the tests in the BUILD
directory is as simple as invoking
ctest -C Debug
or
ctest -C Release
depending on which configuration (CMAKE_BUILD_TYPE
) you chose to build.
Generating Documentation
STLab uses hyde to generate documentation boilerplate by scanning its public headers. You will need to follow Hyde's installation instructions and have hyde
on your $PATH
(detectable by which hyde
).
When adding a new public API, you should invoke
docker run --platform linux/x86_64 --mount type=bind,source="$(pwd)/..",target=/mnt/host \
--tty --interactive \
hyde bash
cd /mnt/host/libraries
./validate_docs.sh --update
(or, simply -u
) to generate the boilerplate for it. Then, fill in any fields marked as __MISSING__
. Fields marked as __OPTIONAL__
may be omitted.