AVNET RZBOARD V2L Engineering Services Evaluation and Development Kits Installation Guide
- June 9, 2024
- AVNET
Table of Contents
RZBOARD V2L Engineering Services Evaluation and Development Kits
Installation Guide
RZBOARD V2L Engineering Services Evaluation and Development Kits
Copyright Statement:
- The RZBoard V2L and its related intellectual property are owned by Avnet.
- Avnet has the copyright of this document and reserves all rights. Any part of the document should not be modified, distributed or duplicated in any form without written permission issued by Avnet.
Disclaimer:
- Avnet does not make warranty of any kind, either expressed or implied, as to the program source code, software and documents provided along with the products, and including, but not limited to, warranties of fitness for a particular purpose; The entire risk as to the quality or performance of the program is with the user of these products.
Revision History
Version | Note | Author | Release Date |
---|---|---|---|
v1.0 | Initial version | Lily | 7/8/2022 |
v2.0 | Update Yocto Project to 3.1.14 | Lily | 9/28/2022 |
v2.1 | Procedure and readability improvements | Peter | 11/8/2022 |
v2.2 | 1.Description of reorganizing structure of Yocto source code | ||
2. Script make_rz_uboot.sh is now provided on github | Lily | 11/28/2022 | |
v2.3 | Miscellaneous document readability edits | Peter | 12/5/2022 |
Summary
RZBoard is a development SBC board designed and manufactured by Avnet, based on RZ/V2L 64bit Arm A55 MPUs with DRP-AI acceleration from Renesas Electronics.
RZBoard is fitted with a Renesas RZ/V2L dual-core MPU (p/n R9A77G054L2)
This document describes key aspects of development on RZBoard using Yocto
Linux
Note: Two methods are detailed in this document for building the Linux image and boot files:
- Yocto build (simpler than the standalone method)
- Standalone build
For simplicity, Renesas recommends using the Yocto build method https://renesas.info/wiki/RZ-G/RZG_yocto#Online_vs_Offline_Yocto_build
Chapter 1 Build Instructions
1.1 Setup Build Environment
To setup the build environment the following resources are required:
- Hardware: At least 300GB of disk space and 8GB of RAM
- Software: Ubuntu 64-bit OS, 20.04 LTS version (Ubuntu Desktop or Ubuntu Server version).
You could also run the Ubuntu 64-bit OS on virtual machine or in docker container.
The following packages are required for the development environment.
The required packages can be installed using the bash script below:
$ sudo apt-get update
$ sudo sudo apt install -y gawk wget git-core diffstat unzip texinfo gcc-
multilib \build-essential chrpath socat cpio python python3 python3-pip
python3-pexpect \xz-utils debianutils iputils-ping libsdl1.2-dev xterm p7zip-
full libyaml-dev \rsync curl locales bash-completion
Set Git configuration:
$ git config –global user.name “Your Name”
$ git config –global user.email “you@example.com“
1.2 Fetch Source Code
1.2.1 Download Renesas software packages
Due to licensing restrictions on the Renesas website, users are required to
download in person, the following six software packages from the Official
RZ/V2L Website
# | Package Name | Version | File to be downloaded |
---|---|---|---|
1 | RZ/V Verified Linux Package | v3.0.0-update2 |
RTK0EF0045Z0024AZJ-v3.0.0-update2.zip
2| RZ MPU Graphics Library| Evaluation Version V1.2|
RTK0EF0045Z13001ZJ-v1.21_EN.zip
3| RZ MPU Codec Library| Evaluation Version V0.58|
RTK0EF0045Z15001ZJ-v0.58_EN.zip
4| RZ/V2L DRP-AI Support Package| V7.20| r11an0549ej0720-rzv2l-drpai-sp.zip
5| RZ/V2L ISP Support Package| V1.20| r11an0561ej0120-rzv2l-isp-sp.zip
6| RZ/V2L Multi-OS Package| V1.02| r01an6238ej0102-rzv2l-cm33-multi-os-pkg.zip
After downloading these packages, copy them to the home directory ( ~/ ) to
prepare for the next step.
Note: The “Evaluation” packages contain a time limitation that stops the
software after a few hours.
For more information please refer to RZ/V2L
Wiki.
1.2.2 Extract Renesas software packages
Download a script to extract the file.
$ cd ~/
$ wget
https://raw.githubusercontent.com/Avnet/metarzboard/rzboard_dunfell_5.10/tools/create_yocto_rz_src.sh
$ chmod a+x create_yocto_rz_src.sh
$ ls ~/
create_yocto_rz_src.sh RTK0EF0045Z0024AZJ-v3.0.0-update2.zip
r01an6238ej0102-rzv2l-cm33-multi-os-pkg.zip RTK0EF0045Z13001ZJ-v1.21_EN.zip
r11an0549ej0720-rzv2l-drpai-sp.zip RTK0EF0045Z15001ZJ-v0.58_EN.zip
r11an0561ej0120-rzv2l-isp-sp.zip
Run the script to generate yocto_rzboard/ directory.
$ ./create_yocto_rz_src.sh
$ ls yocto_rzboard/
meta-gplv2 meta-openembedded meta-renesas meta-virtualization
meta-multi-os meta-qt5 meta-rz-features poky
1.2.3 Download meta-rzboard
$ cd ~/yocto_rzboard
$ git clone https://github.com/Avnet/meta-rzboard.git-brzboard_dunfell_5.10
So far, all the yocto related sources are in place.
$ ls ~/yocto_rzboard
meta-gplv2 meta-openembedded meta-renesas meta-rz-features poky
meta-multi-os meta-qt5 meta-rzboard meta-virtualization
1.3 Yocto Build of BSP
1.3.1 Edit build configuration
cd ~/yocto_rzboard
$ mkdir -p ~/yocto_rzboard/build/conf
$ cp meta-rzboard/conf/rzboard/* build/conf/
$ ls build/conf/bblayers.conf local.conf
The directory to which all Yocto packages are downloaded, can be set by User
in conf/local.conf:
DL_DIR ?= “${HOME}/downloads”
1.3.2 Setting build environment and Build
$ cd ~/yocto_rzboard/
$ source poky/oe-init-build-env build/
$ bitbake avnet-core-image
After the build has successfully completed, the output files are deployed in:
/yocto_rzboard/build/tmp/deploy/images/rzboard/
flashwriter rzboard.mot | FlashWriter image tool |
---|---|
bI2 bp-rzboard.srec | BL2 bootloader file in S-record format |
fip-rzboard.srec | BL31 bootloader plus u-Boot packages in S-record format |
avnet-core-image-rzboard- xxxx.rootfs.wic | System image, this includes: Linux |
kernel. DTB and root file system.
Image| Kernel image
rzboard.dtb| RZBoard device tree binary
overlays/rzboard-*.dtbo| RZBoard device tree overlay binary
avnet-core-image-rzboard- xxxx.rootfs.tar.bz2| System image compressed archive
file
Chapter 2 Standalone Build of Kernel and u-Boot
This chapter describes how to build u-Boot and the kernel using either Yocto
SDK or ARM GCC in a standalone (offline) environment.
2.1 Cross-compile tool chain
The cross-compile tool chain that is used, can be ARM GCC or Yocto SDK.
2.1.1 ARM GCC
Download the tool chain for the A-profile architecture on arm Developer GNU-A
Downloads page. It is recommended to use the 8.3 version for this release. You
can download the “gcc-arm-8.3-2019.03x86_64-aarch64-linux-gnu.tar.xz “, and
decompress the file into a local directory.
$ mkdir ~/toolchain
$ tar -xJf gcc-arm-8.3-2019.03-x86_64-aarch64-linux-gnu.tar.xz -C ~/toolchain
Execute the following command to check that the toolchain can be directly run.
$ cd toolchain/gcc-arm-8.3-2019.03-x86_64-aarch64-linux-gnu/bin/
$ ./aarch64-none-linux-gnu-gcc -v
To compile a project with ARM GCC, first set the environment with the
following commands before building:
$ TOOLCHAIN_PATH=$HOME/toolchain/gcc-arm-8.3-2019.03-x86_64-aarch64-linux-
gnu/bin
$ export PATH=$TOOLCHAIN_PATH:$PATH
$ export ARCH=arm64
$ export CROSS_COMPILE=aarch64-linux-gnu-
2.1.2 Yocto SDK
Generate an SDK from the Yocto Project build environment with the following
command after generating the image in the previous chapter.
$ cd ~/yocto_rzboard/
$ source poky/oe-init-build-env build
$ bitbake avnet-core-image -c populate_sdk
The SDK will be generated under: ~/yocto_rzboard/build/tmp/deploy/sdk/poky-
glibc-x86_64-avnet-coreimage-aarch64-rzboard-toolchain-3.1.14.sh
Execute this script to install the SDK. The default location is /opt but it
can be placed anywhere on the host machine.
$ ./poky-glibc-x86_64-avnet-core-image-aarch64-rzboard-toolchain-3.1.14.sh
Poky (Yocto Project Reference Distro) SDK installer version 3.1.14
Enter target directory for SDK (default: /opt/poky/3.1.14):
When using Yocto SDK to compile a project, first execute the following command
to configure the environment variables:
$ source /opt/poky/3.1.14/environment-setup-aarch64-poky-linux
2.2 Build u-Boot in a standalone environment
To build a bootloader for RZBoard, the user should get cloned different
repositories, such as renesas-uBoot.git, trusted-firmware-a.git and
bootparameter code. After compiling the code of each repository, the user has
to perform some steps to generate the final boot image.
A shell script named make_rz_uboot.sh is provided to simplify these processes.
So the user can download the all code and build with this script. The boot
image build steps are as follows:
Download the bash script into the tmp directory and change the file mode:
Chapter 1
$ mkdir ~/tmp
$ cd ~/tmp
$ wget https://raw.githubusercontent.com/Avnet/rzboard-build-
tools/main/make_rz_uboot.sh
$ chmod a+x make_rz_uboot.sh
Execute the script with parameter -g to download the code first:
$ ./make_rz_uboot.sh -g
Then execute the script with parameter -rz to start the build process:
$ ./make_rz_uboot.sh -rz
The following outputs are generated by default in the tmp directory:
- bl2_bp_rzboard.srec
- fip_rzboard.srec
Please refer to RZBoard-Linux-Yocto-Usermanual.pdf to update these boot images to the board.
2.3 Build Kernel in a standalone environment
Get the Linux source code
$ cd ~/
$ git clone https://github.com/Avnet/renesas-linux-cip.git-
brzboard_v2l_v5.10
Check that the environment variables are correctly set:
$ echo $CROSS_COMPILE $ARCH
Build the kernel sources
$ cd ~/renesas-linux-cip
$ make distclean
$ make rzboard_defconfig
$ make -j4
Execute the ‘ls’ command to view the Image, dtb file and dtbo files after
compilation.
$ ls arch/arm64/boot/Image
$ ls arch/arm64/boot/dts/renesas/rzboard.dtb
$ ls arch/arm64/boot/dts/renesas/overlays/rzboard-*.dtbo
Execute the following command to compile the kernel modules, and install the
modules to rootfs in the current directory.
$ make modules
$ make modules_install INSTALL_MOD_PATH=./rootfs
Chapter 3 Flash-Programming and Board Operation
To program the generated new Bootloader and System image files into RZBoard’s
eMMC memory, use the procedure described in the RZBoard-Linux-Yocto-UserManual
(This also detailed in section 12 of the RZBoard Hardware User Guide)
For guidance on power-up RZBoard, the boot-up process, and how to exercise the
supported BSP features of RZBoard, please refer to RZBoard-Linux-Yocto-
UserManual
All Avnet documents are accessible via the RZBoard product page at
https://www.avnet.me/rzboard
Chapter Appendix
4.1 Hardware Documents
For hardware details please refer to:
- RZBoard Hardware User Guide
- RZBoard Block Diagram
4.2 Software Documents and Links
RZBoard supports Yocto Linux, for additional information, please refer to the
following documents accessible from the RZBoard product page at
https://www.avnet.me/rzboard
-
RZBoard Linux Yocto User Manual
– Describes how to reflash RZBoard and aspects of the BSP functionality -
RZBoard Linux Yocto Development Guide
– Detailed guidance on how to rebuild the Linux system image using Yocto (this document) -
RZ/G2 Group Linux BSP Porting Guide (this is applicable to RZ/V2L)
https://www.renesas.com/us/en/document/mas/rzg2-group-linux-bsp-porting- guide -
RZ/V and RZ/G key Wiki pages on Renesas.info
https://renesas.info/wiki/RZ-V
https://renesas.info/wiki/RZ-G
https://renesas.info/wiki/RZ-G/RZG_kernel
https://renesas.info/wiki/RZ-G/RZG_DeviceTree
https://renesas.info/wiki/RZ-G/RZ-G2_BSP
https://renesas.info/wiki/RZ-G/RZ-G2_BSP_Porting
4.3 Contact Information
Product Webpage: https://www.avnet.me/rzboard
References
- Renesas.info
- Downloads | GNU-A Downloads – Arm Developer
- GitHub - Avnet/meta-rzboard: Yocto meta-layer for Renesas V2L board
- GitHub - Avnet/renesas-linux-cip: Based on https://github.com/renesas-rz/rz_linux-cip.git branch rzv2l-cip41
- raw.githubusercontent.com/Avnet/rzboard-build-tools/main/make_rz_uboot.sh
- RZ/G Series 32/64-bit MPU - Renesas.info
- RZ/G2 and RZ/V2 BSP Information Page - Renesas.info
- RZ/G and RZ/V BSP Porting - Renesas.info
- Device Tree and Device Driver Information - Renesas.info
- RZ/G kernel Information - Renesas.info
- RZ/G Yocto Information - Renesas.info
- RZ/V Series 64-bit MPU - Renesas.info
- RZ/V2L SMARC Board by Renesas - Renesas.info
- RZ/V2L - General-Purpose Microprocessor Equipped With Renesas' Original AI Accelerator "DRP-AI", 1.2GHz Dual-Core Arm® Cortex®-A55 CPU, 3D Graphics, and Video Codec Engine | Renesas
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