doc: esp32: Update the building instruction

Cover the 2nd stage bootloader options and
the extend the application build instructions
to include sysbuild.

Signed-off-by: Marek Matej <marek.matej@espressif.com>
This commit is contained in:
Marek Matej 2023-03-09 21:12:48 +01:00 committed by Carles Cufí
commit 67357e5618
14 changed files with 1206 additions and 53 deletions

View file

@ -73,10 +73,10 @@ Current Zephyr's ESP32-C3-Devkitm board supports the following features:
+------------+------------+-------------------------------------+
System requirements
===================
*******************
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -90,7 +90,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32c3_devkitm
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -124,7 +205,7 @@ message in the monitor:
Hello World! esp32c3_devkitm
Debugging
---------
*********
As with much custom hardware, the ESP32-C3 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of
@ -152,7 +233,7 @@ You can debug an application in the usual way. Here is an example for the :ref:`
.. _`OpenOCD ESP32`: https://github.com/espressif/openocd-esp32/releases
References
==========
**********
.. [1] https://www.espressif.com/en/products/socs/esp32-c3
.. _ESP32C3 Devkitm User Guide: https://docs.espressif.com/projects/esp-idf/en/latest/esp32c3/hw-reference/esp32c3/user-guide-devkitm-1.html

View file

@ -96,7 +96,88 @@ Programming and debugging for the ICE-V Wireless ESP32-C3 target is
incredibly easy 🎉 following the steps below.
Building and Flashing
=====================
*********************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: icev_wireless
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
For the :code:`Hello, world!` application, follow the instructions below.
@ -105,15 +186,22 @@ For the :code:`Hello, world!` application, follow the instructions below.
:board: icev_wireless
:goals: build flash
Since the Zephyr console is by default on the `usb_serial` device, we use
the espressif monitor to view.
Open the serial monitor using the following command:
.. code-block:: console
$ west espressif monitor
After the board has automatically reset and booted, you should see the following
message in the monitor:
.. code-block:: console
***** Booting Zephyr OS vx.x.x-xxx-gxxxxxxxxxxxx *****
Hello World! icev_wireless
Debugging
=========
*********
As with much custom hardware, the ESP32C3 modules require patches to
OpenOCD that are not upstreamed. Espressif maintains their own fork of

View file

@ -40,7 +40,7 @@ The STAMP-C3 board configuration supports the following hardware features:
Prerequisites
-------------
*************
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -54,7 +54,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: stamp_c3
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -88,7 +169,7 @@ message in the monitor:
Hello World! stamp_c3
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of

View file

@ -64,7 +64,7 @@ The board uses a standard XIAO pinout, the default pin mapping is the following:
XIAO ESP32C3 Pinout
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -78,7 +78,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: xiao_esp32c3
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by Sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
For the :code:`Hello, world!` application, follow the instructions below.
@ -94,8 +175,16 @@ the espressif monitor to view.
$ west espressif monitor
After the board has automatically reset and booted, you should see the following
message in the monitor:
.. code-block:: console
***** Booting Zephyr OS vx.x.x-xxx-gxxxxxxxxxxxx *****
Hello World! xiao_esp32c3
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of

View file

@ -103,7 +103,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -137,7 +218,7 @@ message in the monitor:
Hello World! esp32
Debugging
---------
*********
ESP32 support on OpenOCD is available upstream as of version 0.12.0.
Download and install OpenOCD from `OpenOCD`_.

View file

@ -18,7 +18,7 @@ over Ethernet (PoE).
ESP32-Ethernet-Kit V1.2 Overview
Overview
--------
********
ESP32-Ethernet-Kit is an ESP32-based development board produced by
`Espressif <https://espressif.com>`_.
@ -46,7 +46,7 @@ USB interface without a separate JTAG debugger.
Functionality Overview
----------------------
======================
The block diagram below shows the main components of ESP32-Ethernet-Kit
and their interconnections.
@ -193,13 +193,13 @@ PoE. When the Ethernet board (A) detects 5 V power output from the PoE board
Setup Options
-------------
=============
This section describes options to configure the ESP32-Ethernet-Kit hardware.
Function Switch
^^^^^^^^^^^^^^^
---------------
When in On position, this DIP switch is routing listed GPIOs to FT2232H to
provide JTAG functionality. When in Off position, the GPIOs may be used for
@ -216,7 +216,7 @@ DIP SW GPIO Pin
RMII Clock Selection
^^^^^^^^^^^^^^^^^^^^
--------------------
The ethernet MAC and PHY under RMII working mode need a common 50 MHz
reference clock (i.e. RMII clock) that can be provided either externally,
@ -230,7 +230,7 @@ or generated from internal ESP32 APLL (not recommended).
RMII Clock Sourced Externally by PHY
""""""""""""""""""""""""""""""""""""
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
By default, the ESP32-Ethernet-Kit is configured to provide RMII clock for the
IP101GRI PHY's 50M_CLKO output. The clock signal is generated by the frequency
@ -252,7 +252,7 @@ during the GPIO0 power-up sampling phase).
RMII Clock Sourced Internally from ESP32's APLL
"""""""""""""""""""""""""""""""""""""""""""""""
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
Another option is to source the RMII Clock from internal ESP32 APLL, see
figure below. The clock signal coming from GPIO0 is first inverted, to account
@ -419,10 +419,10 @@ GPIO Allocation Summary
e.g. the ESP32-WROOM-32D or ESP32-SOLO-1.
System requirements
-------------------
*******************
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -436,7 +436,89 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32_ethernet_kit
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -470,7 +552,7 @@ message in the monitor:
Hello World! esp32_ethernet_kit
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of
@ -497,7 +579,7 @@ You can debug an application in the usual way. Here is an example for the :ref:`
Enabling Ethernet
-----------------
*****************
Enable Ethernet MAC, PHY and MDIO; add these to your device tree overlay::
@ -520,13 +602,13 @@ Enable Ethernet in KConfig::
CONFIG_NET_L2_ETHERNET=y
Board Init
-----------------
==========
RESET_N (GPIO5) is automatically set high to enable the Ethernet PHY
during board initialization (board_init.c)
Related Documents
-----------------
*****************
* `ESP32-Ethernet-Kit V1.2 Ethernet Board (A) Schematic <https://dl.espressif.com/dl/schematics/SCH_ESP32-Ethernet-Kit_A_V1.2_20200528.pdf>`_ (PDF)
* `ESP32-Ethernet-Kit PoE Board (B) Schematic <https://dl.espressif.com/dl/schematics/SCH_ESP32-ETHERNET-KIT_B_V1.0_20190517.pdf>`_ (PDF)

View file

@ -35,7 +35,7 @@ The features include the following:
:alt: ESP32-S2 FRANZININHO
System requirements
*******************
===================
Prerequisites
-------------
@ -52,7 +52,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32s2_franzininho
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).

View file

@ -86,7 +86,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32s2_saola
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -120,7 +201,7 @@ message in the monitor:
Hello World! esp32s2_saola
Debugging
---------
*********
ESP32-S2 support on OpenOCD is available upstream as of version 0.12.0.
Download and install OpenOCD from `OpenOCD`_.

View file

@ -122,7 +122,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp32s3_devkitm
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -156,7 +237,7 @@ message in the monitor:
Hello World! esp32s3_devkitm
Debugging
---------
*********
ESP32-S3 support on OpenOCD is available upstream as of version 0.12.0.
Download and install OpenOCD from `OpenOCD`_.

View file

@ -501,7 +501,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: esp_wrover_kit
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -535,7 +616,7 @@ message in the monitor:
Hello World! esp_wrover_kit
Debugging
---------
*********
ESP32 support on OpenOCD is available upstream as of version 0.12.0.
Download and install OpenOCD from `OpenOCD`_.

View file

@ -26,7 +26,7 @@ System requirements
*******************
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -40,7 +40,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: heltec_wifi_lora32_v2
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -74,7 +155,7 @@ message in the monitor:
Hello World! heltec_wifi_lora32_v2
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of
@ -103,7 +184,7 @@ Utilizing Hardware Features
***************************
Onboard OLED display
--------------------
====================
The onboard OLED display is of type ``ssd1306``, has 128*64 pixels and is
connected via I2C. It can therefore be used by enabling the

View file

@ -85,7 +85,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: m5stickc_plus
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -123,7 +204,7 @@ message in the monitor:
Hello World! m5stickc_plus
Debugging
---------
*********
M5StickC PLUS debugging is not supported due to pinout limitations.

View file

@ -31,7 +31,7 @@ The features include the following:
ODROID-Go Game Kit
External Connector
------------------
==================
+-------+------------------+-------------------------+
| PIN # | Signal Name | ESP32-WROVER Functions |
@ -58,7 +58,7 @@ External Connector
+-------+------------------+-------------------------+
Supported Features
******************
==================
The Zephyr odroid_go board configuration supports the following hardware
features:
@ -82,7 +82,7 @@ System requirements
*******************
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -96,7 +96,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: odroid_go
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -130,7 +211,7 @@ message in the monitor:
Hello World! odroid_go
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of

View file

@ -92,7 +92,7 @@ System requirements
*******************
Prerequisites
-------------
=============
Espressif HAL requires WiFi and Bluetooth binary blobs in order work. Run the command
below to retrieve those files.
@ -106,7 +106,88 @@ below to retrieve those files.
It is recommended running the command above after :file:`west update`.
Building & Flashing
-------------------
*******************
ESP-IDF bootloader
==================
The board is using the ESP-IDF bootloader as the default 2nd stage bootloader.
It is build as a subproject at each application build. No further attention
is expected from the user.
MCUboot bootloader
==================
User may choose to use MCUboot bootloader instead. In that case the bootloader
must be build (and flash) at least once.
There are two options to be used when building an application:
1. Sysbuild
2. Manual build
.. note::
User can select the MCUboot bootloader by adding the following line
to the board default configuration file.
```
CONFIG_BOOTLOADER_MCUBOOT=y
```
Sysbuild
========
The sysbuild makes possible to build and flash all necessary images needed to
bootstrap the board with the EPS32 SoC.
To build the sample application using sysbuild use the command:
.. zephyr-app-commands::
:tool: west
:app: samples/hello_world
:board: olimex_esp32_evb
:goals: build
:west-args: --sysbuild
:compact:
By default, the ESP32 sysbuild creates bootloader (MCUboot) and application
images. But it can be configured to create other kind of images.
Build directory structure created by sysbuild is different from traditional
Zephyr build. Output is structured by the domain subdirectories:
.. code-block::
build/
├── hello_world
│   └── zephyr
│   ├── zephyr.elf
│   └── zephyr.bin
├── mcuboot
│ └── zephyr
│ ├── zephyr.elf
│ └── zephyr.bin
└── domains.yaml
.. note::
With ``--sysbuild`` option the bootloader will be re-build and re-flash
every time the pristine build is used.
For more information about the system build please read the :ref:`sysbuild` documentation.
Manual build
============
During the development cycle, it is intended to build & flash as quickly possible.
For that reason, images can be build one at a time using traditional build.
The instructions following are relevant for both manual build and sysbuild.
The only difference is the structure of the build directory.
.. note::
Remember that bootloader (MCUboot) needs to be flash at least once.
Build and flash applications as usual (see :ref:`build_an_application` and
:ref:`application_run` for more details).
@ -140,7 +221,7 @@ message in the monitor:
Hello World! olimex_esp32_evb
Debugging
---------
*********
As with much custom hardware, the ESP32 modules require patches to
OpenOCD that are not upstreamed yet. Espressif maintains their own fork of
@ -165,6 +246,9 @@ You can debug an application in the usual way. Here is an example for the :ref:`
:board: olimex_esp32_evb
:goals: debug
References
**********
.. _ESP32-EVB Website:
https://www.olimex.com/Products/IoT/ESP32/ESP32-EVB/open-source-hardware