'file://bsp.cfg file://linux-xlnx-QEMU-SD.patch' Project-spec/meta-user/recipes-kernel/ linux/ linux-xlnx % cp /home/projects/ gerstl/ee382m/ linux- xlnx-QEMU- SD.patch QEMU installation that comes with PetaLinux does notįully emulate the SD card hardware, so we need to patch the Linux kernel to

Select Image Packaging Configuration->Root For that, we need to configure PetaLinux to Optionally boot into the same Ubuntu installation that is on the physicalīoards. Furthermore, we need to be able to customize the image and RAM disk as root filesystem, where any modifications will not be permanent and Pre-built PetaLinux image boots into Linux using a Note that toĮnd the simulation, you will have to terminate the QEMU simulation using Ctrl-A At the prompt, login as 'root' (password 'root')Īnd you will have access to a bare-bone, minimal Linux installation ( busybox) running on the emulated ARM platform. This point, you should be able to boot the pre-built image that comes with PetaLinux in their QEMU: If you want to switch machines, you need to create a new project (pleaseĬlean up any leftover old project directories under / tmp then – PetaLinux uses a lot of temporary disk space and / tmp fills up pretty fast Machines, you need to stay on the machine that you created the original project That PetaLinux creates a temporary directory under / tmp to work with. % source /usr/local/packages/xilinx_2017.4/petalinux/2017.4/settings.sh / usr/local/packages/xilinx_2017.4/ petalinux/2017.4Įither work with an existing or create a new PetaLinux Log into the ECE-LRC servers (see instructions) and setup the Will be using the QEMU simulator that comes with the PetaLinux Implemented in the FPGA fabric, where the application running on the ARMĪccesses the external hardware through memory-mapped I/O or a Linux kernel More information about the QEMU/ SystemC integrationĭemonstrates a QEMU/ SystemC simulation of a Zynq platform that includes a simple hardware module Sockets that other SystemC modules representingīlocks in the programmable logic can be connected and interfaced to in order toĬonstruct a complete SoC virtual platform simulation. Side, these interfaces are represented as standard TLM2.0 bus models and Programmable ARM subsystem and the FPGA fabric. Two simulators communicate through special co-simulation ports that model theĪvailable bus and other interfaces between the Zynq’s

Simulator instance is launched in parallel to the QEMU simulation, where the For QEMU/ SystemC co-simulation, a separate SystemC Will be using a special setup of QEMU provided by Xilinx that integrates with a More informationĪbout Xilinx's QEMU setup is available through their wiki page and support forums. Platform for virtual prototyping of our SoC. Simulation model provided by Xilinx for their Zynq

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