For more detailed reference material on the most commonly used features of Mojo, head directly to the bindings documentation for your language of choice or the more general mojom Interface Definition Language (IDL) documentation.
Mojo is a collection of runtime libraries providing a platform-agnostic abstraction of common IPC primitives, a message IDL format, and a bindings library with code generation for multiple target languages to facilitate convenient message passing across arbitrary inter- and intra-process boundaries.
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In order to use any of the more interesting high-level support libraries like the System APIs or Bindings APIs, a process must first initialize Mojo Core. This is a one-time initialization which remains active for the remainder of the process's lifetime. There are two ways to initialize Mojo Core: via the Embedder API, or through a dynamically linked library.
Many processes to be interconnected via Mojo are embedders, meaning that they statically link against the //mojo/core/embedder target and initialize Mojo support within each process by calling mojo::core::Init(). See Mojo Core Embedder API for more details.
This is a reasonable option when you can guarantee that all interconnected process binaries are linking against precisely the same revision of Mojo Core. This includes Chromium itself as well as any developer tools and test executables built within the tree.
Instead of calling mojo::core::Init() as embedders do, an application using dynamic Mojo Core instead calls MojoInitialize() from the C System API. This call will attempt to locate (see above) and load the Mojo Core library to support subsequent Mojo API usage within the process.
Note that the Mojo Core shared library presents a stable C ABI designed with both forward- and backward-compatibility in mind. Thus old applications will work with new versions of the shared library, and new applications can work with old versions of the shared library (modulo any dependency on newer features, whose absence can be gracefully detected at runtime).
There is a relatively small, higher-level system API for each supported language, built upon the low-level C API. Like the C API, direct usage of these system APIs is rare compared to the bindings APIs, but it is sometimes desirable or necessary.
The mojom Interface Definition Language (IDL) is used to generate interface bindings for various languages to send and receive mojom interface messages using Mojo message pipes. The generated code is supported by a language-specific bindings API:
Note that the C++ bindings see the broadest usage in Chromium and are thus naturally the most feature-rich, including support for things like associated interfaces, synchronous calls, and type-mapping.
There are number of potentially decent answers to this question, but the deal-breaker is that a useful IPC mechanism must support transfer of native object handles (e.g. file descriptors) across process boundaries. Other non-new IPC things that do support this capability (e.g. D-Bus) have their own substantial deficiencies.
Yes, and message pipe usage is identical regardless of whether the pipe actually crosses a process boundary -- in fact the location of the other end of a pipe is intentionally obscured, in part for the sake of efficiency, and in part to discourage tight coupling of application logic to such details.
Message pipes which don't cross a process boundary are efficient: sent messages are never copied, and a write on one end will synchronously modify the message queue on the other end. When working with generated C++ bindings, for example, the net result is that a Remote on one thread sending a message to a Receiver on another thread (or even the same thread) is effectively a PostTask to the Binding's TaskRunner with the added -- but often small -- costs of serialization, deserialization, validation, and some internal routing logic.
[INFO] Internal error in the plugin manager executing goal 'org.apache.maven.plugins:maven-surefire-plugin:2.4.3:test': Unable to load the mojo 'org.apache.maven.plugins:maven-surefire-plugin:2.4.3:test' in the plugin 'org.apache.maven.plugins:maven-surefire-plugin'. A required class is missing: org/apache/maven/surefire/util/NestedCheckedException org.apache.maven.surefire.util.NestedCheckedException
The most likely cause appears to be corrupt jar files in your local repository. Try clearing out all maven jars from your local repository. Remove everything from /.m2/repository/org/apache/maven and run the build again.
I got "unable to exe mojo" error when I build a maven project (JAVA), I noticed it also failed to get JAVA_HOME path which i added in my .batch_profile, manually export JAVA home problem resolved. it looks in many cases this build problem could happen but check system env variable might help ... David 152ee80cbc
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