@@ -122,7 +122,9 @@ You must install the software packages required for build. The command is as fol
# export PATH=~/.local/bin:$PATH
```
>**NOTE**<br>The hb tool will be installed during the installation of **ohos-build**. If hb tool fails to be installed, [install hb](../../device-dev/quick-start/quickstart-pkg-install-tool.md#hb-installation) again.
>**NOTE**
>
>The hb tool will be installed during the installation of **ohos-build**. If hb tool fails to be installed, [install hb](../../device-dev/quick-start/quickstart-pkg-install-tool.md#hb-installation) again.
## Configuration Rules
...
...
@@ -133,6 +135,7 @@ To ensure that chipset and product solutions are decoupled from OpenHarmony, you
> Due to the limitation of the image size, the full build for the debug version may fail to be burnt. You are advised to build the binary file for each module separately. Run the following command to build a module separately:
> Due to the limitation of the image size, the full build for the debug version may fail to be burnt. You are advised to build the binary file for each module separately. Run the following command to build a module separately:
-v, --verbose show all command lines while building
-shs, --sign_haps_by_server
sign haps by server
--patch apply product patch before compiling
--compact-mode compatible with standard build system set to false if we use build.sh as build entrance
--gn-args GN_ARGS specifies gn build arguments, eg: --gn-args="foo="bar" enable=true blah=7"
--keep-ninja-going keeps ninja going until 1000000 jobs fail
--build-only-gn only do gn parse, do not run ninja
--log-level LOG_LEVEL
specifies the log level during compilationyou can select three levels: debug, info and error
--fast-rebuild it will skip prepare, preloader, gn_gen steps so we can enable it only when there is no change
for gn related script
--device-type DEVICE_TYPE
specifies device type
--build-variant BUILD_VARIANT
specifies device operating mode
```
- You can run **hb set -root***dir* to set the root directory of the source code.
- If you run **hb build** with no argument, the previously configured code directory, product, and options are used for the build. The **-f** option deletes all products to be built. It is equivalent to running **hb clean** and **hb build**.
- You can run **hb set -p** to set the product to build.
- You can run **hb build***{component_name}* to build product components separately based on the development board and kernel set for the product, for example, **hb build kv_store**.
- You can run **hb build -p ipcamera@hisilicon** to skip the setting step and build the product directly.
**hb env**
- You can run **hb build** in **device/board/device_company** to select the kernel and build an image that contains the kernel and drivers only based on the current development board and the selected kernel.
Deletes all the files except **args.gn** and **build.log** in the **out** directory (default). To clear files in a specified directory, add the directory parameter to the command, for example, **hb clean out/board/product**.
```shell
hb clean
usage: hb clean [-h][out_path]
**hb build**
positional arguments:
out_path clean a specified path.
Builds a product, component, module, or chipset solution.
-v, --verbose show all command lines while building
-shs, --sign_haps_by_server
sign haps by server
--patch apply product patch before compiling
--compact-mode compatible with standard build system set to false if we use build.sh as build entrance
--gn-args GN_ARGS specifies gn build arguments, eg: --gn-args="foo="bar" enable=true blah=7"
--keep-ninja-going keeps ninja going until 1000000 jobs fail
--build-only-gn only do gn parse, do not run ninja
--log-level LOG_LEVEL
specifies the log level during compilationyou can select three levels: debug, info and error
--fast-rebuild it will skip prepare, preloader, gn_gen steps so we can enable it only when there is no change
for gn related script
--device-type DEVICE_TYPE
specifies device type
--build-variant BUILD_VARIANT
specifies device operating mode
```
- If you run **hb build** with no argument, the previously configured code directory, product, and options are used for the build. The **-f** option deletes all products to be built. It is equivalent to running **hb clean** and **hb build**.
- You can run **hb build***{component_name}* to build product components separately based on the development board and kernel set for the product, for example, **hb build kv_store**.
- You can run **hb build -p ipcamera@hisilicon** to skip the setting step and build the product directly.
- You can run **hb build** in **device/board/device_company** to select the kernel and build an image that contains the kernel and drivers only based on the current development board and the selected kernel.
**hb clean**
Deletes all the files except **args.gn** and **build.log** in the **out** directory (default). To clear files in a specified directory, add the directory parameter to the command, for example, **hb clean out/board/product**.
```shell
hb clean
usage: hb clean [-h][out_path]
positional arguments:
out_path clean a specified path.
optional arguments:
-h, --help show this help message and exit
```
> **NOTE**
>
> - For details about how to set up the build environment and perform the build, see the related topics in [Getting Started](../quick-start/quickstart-overview.md)
> - OpenHarmony also provides the Docker environment, which spares the installation of the build tool. For details, see [Docker Environment](../get-code/gettools-acquire.md)
> **NOTE**
>
> - For details about how to set up the build environment and perform the build, see the related topics in [Getting Started](../quick-start/quickstart-overview.md).
> - OpenHarmony also provides the Docker environment, which spares the installation of the build tool. For details, see [Docker Environment](../get-code/gettools-acquire.md).
### Building Procedures
...
...
@@ -382,3 +395,4 @@ You can add and build a product, component, chipset solution, and module. For de
-[Parameters for Accelerating Local Build](subsys-build-reference.md#parameters-for-accelerating-local-build)
@@ -18,7 +18,7 @@ To integrate Rust code and maximize the interaction between the C/C++ code used
## Configure Rules
## Configuration Rules
OpenHarmony provides a variety of GN templates for compiling Rust executables, dynamic libraries, and static libraries. The following table describes the templates.
| GN Template | Description | Output |
...
...
@@ -104,7 +104,10 @@ The procedure is as follows:
### Configuring a Third-Party Library
The following example shows how to use the **ohos_rust_executable** and **ohos_rust_cargo_crate** templates to build a third-party static rlib library whose code contains a prebuilt file **build.rs**.
The **BUILD.gn** file of the rust third-party library can be automatically generated using the cargo2gn tool. For details, see [Using Cargo2gn](subsys-build-cargo2gn-guide.md).
The following example shows how to use the **ohos_rust_executable** and **ohos_rust_cargo_crate** templates to compile a third-party static library rlib file that contains a prebuilt file **build.rs**.
The procedure is as follows:
...
...
@@ -307,18 +310,18 @@ The procedure is as follows:
You can find the Rust module configuration examples in the **build/rust/tests** directory.
| build/rust/tests/test_bin_crate | Tests the build of an executable file on the host platform and running of the executable file on the target platform.|
| build/rust/tests/test_static_link | Tests the static linking of an executable file to a standard library. |
| build/rust/tests/test_dylib_crate | Tests the build of a dynamic library and dynamic linking. |
| build/rust/tests/test_rlib_crate | Tests the build of a static library and static linking. |
| build/rust/tests/test_proc_macro_crate | Tests the build of Rust process macros and the linking function. Test cases are provided for different types of macros.|
| build/rust/tests/test_cdylib_crate | Tests the generation of Rust FFI bindings to a C/C++ dynamic library. |
| build/rust/tests/test_staticlib_crate | Tests the generation of Rust FFI bindings to a C/C++ static library. |
| build/rust/tests/test_rust_ut | Tests the Rust code unit test template. |
| build/rust/tests/test_rust_st | Tests the Rust code system test template. |
| build/rust/tests/test_bin_cargo_crate | Tests the build and running of a Rust third-party executable file. The third-party code contains the **build.rs**. |
| build/rust/tests/test_rlib_cargo_crate | Tests the build of a Rust third-party static library and static linking. The third-party code contains the **build.rs**. |
| build/rust/tests/test_proc_macro_cargo_crate | Tests the build of Rust third-party process macros and linking. The third-party code contains the **build.rs**. |
| build/rust/tests/test_bin_crate | Tests the build of an executable file on the host platform and running of the executable file on the target platform.|
| build/rust/tests/test_static_link | Tests the static linking of an executable file to a standard library. |
| build/rust/tests/test_dylib_crate | Tests the build of a dynamic library and dynamic linking. |
| build/rust/tests/test_rlib_crate | Tests the build of a static library and static linking. |
| build/rust/tests/test_proc_macro_crate | Tests the build of Rust process macros and the linking function. Test cases are provided for different types of macros.|
| build/rust/tests/test_cdylib_crate | Tests the generation of Rust FFI bindings to a C/C++ dynamic library. |
| build/rust/tests/test_staticlib_crate | Tests the generation of Rust FFI bindings to a C/C++ static library. |
| build/rust/tests/test_rust_ut | Tests the Rust code unit test template. |
| build/rust/tests/test_rust_st | Tests the Rust code system test template. |
| build/rust/tests/test_bin_cargo_crate | Tests the build and running of a Rust third-party executable file. The third-party source code contains **build.rs**.|
| build/rust/tests/test_rlib_cargo_crate | Tests the build of a Rust third-party static library and static linking. The third-party source code contains **build.rs**.|
| build/rust/tests/test_proc_macro_cargo_crate | Tests the build of Rust third-party process macros and linking. The third-party source code contains **build.rs**. |
## Reference
...
...
@@ -347,6 +350,7 @@ executable("foo") {
The OpenHarmony framework supports two types of lints: rustc lints and Clippy lints. Each type of lint has three levels: openharmony (highest), vendor, and none (lowest).
When configuring the Rust module, you can specify the lint level in **rustc_lints** or **clippy_lints**.
If **rustc_lints** or **clippy_lints** is not configured in the module, the lint level is matched based on the module path. Different restrictions apply to the syntax specifications of Rust code in different directories. Therefore, you need to pay attention to the path of the module when configuring the Rust module to build in OpenHarmony.
#### Levels of rustc Lints and Clippy Lints
...
...
@@ -367,3 +371,6 @@ If **rustc_lints** or **clippy_lints** is not configured in the module, the lint
| vendor | vendor |
| device | vendor |
| others | openharmony |
### [Interactive Tool User Guide](subsys-build-bindgen-cxx-guide.md)
