Boost is a set of libraries for the C++ programming language. It contains 164 individual libraries. It was initially released on September 1, 1999. Furthermore, it provides support for many tasks such as pseudo-random number generation, linear algebra, multithreading, image processing, regular expressions, and unit testing. In this article, we are going to learn how we can install a boost library in C++ on Linux.
This is my (extremely limited and hopefully correct) understanding: Essentially, when you compile a C or C++ binary that uses an external shared library, the binary needs to be "linked" to the dependency. This tells the binary where to expect the dependency and how it should be accessed to get to the functions used. You'll get an undefined symbol error if:
The Sensor Supplyer told me, that he needs some boost funktions, but we can not see the dependencies from the libboost.so when we do lbb. He was now to figure out how to link it correctly, as he assumes that the compieler does link anything (even when its not present on his PC) and search's it then in the NI target. Any idea on that?
I'm not extremely familiar with the linux filesystem, having moved from windows, but I do have a decent amount of experience with C++ and the Boost libraries in windows. Having switched Fedora 17, can anyone tell me if there is a certain directory where I should install Boost to get it working the gnu compiler?
The libraries are aimed at a wide range of C++ users and application domains. They range from general-purpose libraries like the smart pointer library, to operating system abstractions like Boost FileSystem, to libraries primarily aimed at other library developers and advanced C++ users, like the template metaprogramming (MPL) and domain-specific language (DSL) creation (Proto).
The original founders of Boost that are still active in the community includes David Abrahams. An author of several books on C++, Nicolai Josuttis, contributed to the Boost array library in 2001. There are mailing lists devoted to Boost library use and library development, active as of 2023[update].[10]
It appeared that I needed the system library. So, I followed the directions on the Getting Started guide found here, which gave me a bunch of libraries located in /usr/include/boost_1_40_0/stage/lib. Among them was libboost_system.a. Thus, I attempted to compile with:
In this case james' answer was correct, but if anybody else happens to stumble upon this post like I did then be aware that you can get this message if you link old boost headers against newer libraries. get_system_category() specifically has been deprecated. I ran into this problem while accidentally including distro-provided headers but linking against my own internal copy of boost.
They basically suggest that I run ./bjam install, which I did. The build completed successfully. However, the library names don't seem to match the Boost naming convention described both in the documentation above, and what is specified in the makefile of the application I am trying to build.
Second is --layout=versioned and --layout=system. It seems like you have discovered what they do already, and indeed, system is default since 1.40. The getting started guide fails to mention this, and I've added an action item to update it. Ideally, you should talk to the authors of the application to use the system naming of boost libraries. If that's not possible, then building with --layout=versioned is the only option.
-Error (active) E0304 no instance of overloaded function "boost::asio::buffer" matches the argument list -Error (active) E0020 identifier "sa_family_t" is undefined VoiceChatServer -Error (active) E0059 function call is not allowed in a constant expression -Error (active) E2778 builtin function is not available because vector types are not supported -Error (active) E0035 #error directive: Only Windows, POSIX and std::thread are supported!
boost::asio is a header-only library, i.e. you simply specify the path to boost::asio source in the include directory path but it does depend on some other libraries with compiled binaries (object files). You must list these additonal libraries in the Visual Studio project under Linker - Input - Library Dependencies. E.g. in the case of Boost.System specify boost_system and the linker will add the lib prefix and .a or .so extension.
I'm curious about how you've installed Boost; it looks to me like your include path on the Linux remote is /home/pi/boostPrefix/include. If you have followed the standard Boost install procedure (boostrap.sh and b2) the Boost headers will be in /.../boost_1_66_0/boost/asio, the include path you specify in the Visual Studio project C/C++ > Additional Include Directories will be /.../boost_1_66_0 and in your C++ code you will write #include
I'm trying to build autotools C++ projects (two disctincts project by the same authors are given the same problem) which make use of parts of the Boost library. They have been successfully tested and build under Ubuntu 12.04. with installed libboost-all-dev package. With ArchLinux ./configure works out fine and the compilation process (make) seems to work, too. Nevertheless, there seems to be a problem with the linking:
So i copied the boost and libs directory's contents to "/usr/include/boost" (my boost arch package install)... Now i need to build Boost.System, by running bjam, this is the part i cannot get to work.
I have downloaded "boost" (1.40.0) source code from their homepage "www.boost.org".I have Linux (Ubuntu 9.04 Jaunty) installed and trying to compile the boost libraries to the "WINDOWS" version (e.g. ".dll", NOT ".so") from my "LINUX" machine.
Boost makes assumptions about your OS and current build based on your current system. What if you were to get ahold of the win32 header files, remove all linux headers from the include path, and then try building?
Here we are about to install the latest version of the Boost library, hence, we need to compile it from the source. Hence, make sure your system is up to date and the APT package manager has the latest package index cache.
The version of the Boost library available to install on Ubuntu Linux using the default system repository of Ubuntu is not the latest one. Therefore, we will download the latest version directly from its website.
After that run the given command that will start the Bootstrap script present inside the Boost extracted folder. It will start building a B2 engine. Also, it will save the compiled library files under /usr/include/boost
Why did you install a Fedora package? This is incompatible with the rest of the boost packages from SUSE, and might even install the files to the wrong location.
Install the boost-devel that comes with your SLES.
On Windows boost does by default not build with --layout=system with the system naming (libboost_filesystem.lib for static) but uses as default --layout=versioned which results e.g. in libboost_filesystem-vc143-mt-s-x64-1_81.lib but I want to build as system to share the target_link_libraries() over platforms.
I have not the slightest clue where this additional dependency is created. I already spent hours on figuring out - with not much success yet. There are versioned libs requested which are not in our add_target_libraries() e.g. libboost_zlib-vc143-mt-x64-1_81.lib.
After the install, I can see the boost header files and include them into my source code.
However, these boost libraries use the boost_system library, which appears to require compilation of the library.
(Refer to section #3 of Boost Getting Started on Unix Variants - 1.69.0)
Thus, it appears I need to compile boost_system using the toradex ARM toolchain (arm-angstrom-linux-gnueabi-g++) so that it can be incorporated into the application build to run on the iMX6.
Yes, there are missing files because they are not included. Normally, a command-line execution of gcc will have -I include options to include project dependency files (in this case, the C++ library files, such as cstddef). How can I do this within Bjam?
Why do I think this article can help you? I am one of the active participants working on the open-source initiative at SciTools. As part of it, I wanted to offer a pre-made analysis for the Boost library. However, as I started to work, I quickly realized how complex it would be before getting a complete and accurate analysis. So I decided to summarize all the pointers you can use if you are trying to analyze a specific piece of the Boost library or open source yourself.
Instead of analyzing all of the Boost libraries, I focus on the Boost filesystem library to illustrate creating an accurate Scitools Understand project. Contact me at [email protected]if you need other modules analyzed.
Step 6 contains the includes for the project. The Boost library is simple as all the needed headers are under a boost folder (you created the required symlinks when you ran ./b2 headers in Step2).
Step 10 adds the directory containing all the files related to the filesystem library. Essentially, We tell SciTools Understand what to analyze. Sometimes, the best approach may be adding files individually instead of the entire content of the folder, as we will see in Step 11.
I am currently trying to migrate my C++ project to Unreal. I used several Boost libraries (filesystem, regex, a.s.o).
I added all relevant boost headers to my .h files in Unreal. Of course, I get an linker error:
(I am thankfull for your answer but I am not skilled enough to build boost as a standalone lib AND integrate it into the Unreal Build Process without any documentation. I tried to create a module with your example but I still get the error:
In general, if you intend to ship your binary, you need to solve the problem of making sure that the user has compatible boost libs anyway, no matter if you are shipping with Unreal or without it. So you can apply the same solution that you would without Unreal, be it having boost installed as a dependency of your package or bundling the boost libs with your program.
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