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Project m boot.elf how to open install#

include/ "system-conf.dtsi" / ġ- Insert the sdcard in the host computer USB port (or a VirtualBox with Ubuntu).Ģ- Run GParted program to perform the sdcard partitioning. ultra96v2.xsaġ- Go to the “ultra96v2-vitis-pkg” folder generated in the first step (i.e., 1-XSA design ) and run the following commands mkdir linux_files mkdir linux_files/bootĢ- Run the setting.sh file located at the PetaLinux installation folder by running this command source /tools/Xilinx/petaliux/2020.1/settings.shģ- In the “ultra96v2-vitis-pkg” folder create a PetaLinux project petalinux-create -t project -template zynqMP -n ultra96v2-petalinuxĤ- Go to the generated project folder and configure the project cd ultra96v2-petalinux petalinux-config -get-hw-description=./vivadoġ1- Turn off “CPU Power Management –> CPU Idle –> CPU idle PM support” and “CPU Power Management –> CPU Frequency scaling –> CPU Frequency scaling”ġ2- Save and exit the kernel configuration windowġ3- Open the “./project-spec/meta-user/recipes-bsp/device-tree/files/system-user.dtsi” file and modify that as follows. and run the following TCL command to generate the XSA file write_hw_platform -include_bit ultra96v2.xsaģ0- You can validate the generated XSA file by running the following TCL command. Go to “ultra96v2-vitis-pkg/vivado” that you have created. you can use pwd command to check the folder. And from the popup menu select “Create HDL Wrapper… ” and select the “Let Viviado manage wrapper and auto-update” option in the dialog box.Ģ8- Then under the PROGRAM AND DEBUG option in the left-hand side panel, select “Generate Bitstream” and wait until the end of the process.Ģ9- After generating the bitstream, go to the TCL Console view and make sure you are in the right folder.

Figures 1-6 show the flow of the project creation.Ģ6- Select the Generate button and wait for the process to finish.Ģ7- Again, press the right-click on the “ultra96v2_design (ultra96v2_design.bd)” option in the source view panel. To make Vivado detects the board, copy the Avnet ultra96v2 board definition files (at here ) to the /data/boards/board_files.ġ- create a directory called ultra96v2-vitis-pkg mkdir ultra96v2-vitis-pkg cd ultra96v2-vitis-pkg/Ģ- create a director called vivado mkdir vivado cd vivadoģ- Run Vivado and create a project called ultra96v2-xsa in the ultra96v2-vitis-pkg/vivado folder.

Project m boot.elf how to open install#

Note that, the Xilinx Vitis software includes Vivado, so you do not need to install that separately. I have installed Xilinx Vitis and Petalinux 2020.1 under the Ubuntu 18.04 OS in a VirtualBox environment. In the sequel, I am trying to briefly explain each step.

Test – Create a simple application to test the generated platform.

CreatePlatform – Using Xilinx Vitis to generate the Platform.

TestLinux – Preparing the SDCard and Test the generated Linux.

Linux OS – Generating a PetaLinux project to configure Linux.

XSA design – Generating a Vivado project containing the underlying hardware.

If you would like to have a fully functional platform that supports all the sensors and modules on the board, you should consult the Avent website and resources.Ĭreating the Ulra96v2 platform in the Xilinx Vitis 2020.1 has five steps: If you are interested to know how to use this platform to accelerate different compute-intensive tasks such as Support Vector Machine (SVM) on an FPGA-based embedded system, please refer to here. Note that the goal of this project is creating a hardware platform for Ultra96v2 that can be used for accelerating functions under the Xilinx Vitis toolset.