Vitis_Platform_Creation.rst

AMD Vitis Platform Creation Tutorials

What is a Platform?

Briefly speaking, a platform is a package that contains the HPFM (.xsa) file and SPFM (software components). When you input the .xsa file and software components, the AMD Vitis™ IDE tool will package them together and generate a platform .xpfm file, while the .xsa file is designed and exported from the AMD Vivado™ tool. Software components are prepared by AMD and ready to use for evaluation. Software components customization is also supported with Petalinux, if needed.

Platform Creation Example Quick Access

• For a first experience of platforms, refer to Vitis Platform Quick Start
• For ZYNQMP device family, refer to :doc:`ZCU104 platform tutorial <./docs/Design_Tutorials/02-Edge-AI-ZCU104/README>`
• For Versal device family, refer to :doc:`VCK190 platform tutorial <./docs/Design_Tutorials/03_Edge_VCK190/README>`
• For :term:`DFX` platform, refer to :doc:`DFX platform tutorial <./docs/Design_Tutorials/04_Edge_VCK190_DFX/README>`
• For SOM series, refer to :doc:`KV260 platform tutorial <./docs/Design_Tutorials/01-Edge-KV260/README>`
• For PetaLinux customization, refer to :doc:`PetaLinux Customization <./docs/Feature_Tutorials/02_petalinux_customization/README>`

Platform Creation Tutorials

The tutorials under the Vitis Platform Creation category help you learn how to develop an extensible platform for your own board, or customize the Vitis platform on Xilinx demo boards.

• The :doc:`Design Tutorials <./docs/Design_Tutorials/Design_Tutorials>` showcase end-to-end workflow for creating the Vitis extensible platforms from scratch for different device families and boards.
• The :doc:`Feature Tutorials <./docs/Feature_Tutorials/Feature_Tutorials>` highlight specific features and flows that help develop the platform.

Design Tutorials

.. toctree::
   :maxdepth: 3
   :caption: Design Tutorials
   :hidden:

   Design Tutorials <./docs/Design_Tutorials/Design_Tutorials>

Tutorial	Device Family	Board	Platform Type	IDE Flow	Design Target
Vitis Platform Quick Start	Versal AI Core	VCK190	Flat	Vivado Vitis Unified IDE	Highlights: Simplest Vitis Platform creation and usage flow. Hardware design: Using Vivado Customizable Example Design template to quick start. Software design: Using createdts and Common Image to quick start. Verification: Vector Addition. Note This design flow is applicable to most AMD demo boards.
:doc:`Create a Vitis Platform for Custom Versal Boards <./docs/Design_Tutorials/03_Edge_VCK190/README>`	Versal AI Core	VCK190	Flat	Vivado Vitis IDE	Highlights: Platform design flow for custom boards. Hardware design: Using Vivado Customizable Example Design (device part based) to create the hardware and do further customizations. Software design: Using createdts and Common Image to quick start. Verification: Vector Addition. Note This tutorial uses VCK190 board as a custom board. The design does not use any of its presets.
:doc:`Versal DFX Platform Creation Tutorial <./docs/Design_Tutorials/04_Edge_VCK190_DFX/README>`	Versal AI Core	VCK190	:term:`DFX`	Vivado Vitis IDE	Highlights: Design flow for Vitis DFX (Dynamic Function eXchange) Platform. Hardware design: Using Vivado Customizable Example Design template to quick start. Software design: Using createdts and Common Image to quick start. Verification: Vector Addition.
:doc:`Create Vitis Platforms for Zynq UltraScale+ MPSoC <./docs/Design_Tutorials/02-Edge-AI-ZCU104/README>`	Zynq UltraScale+ MPSoC	ZCU104	Flat	Vivado Vitis IDE	Highlights: Creating a Vitis platform for Zynq UltraScale+ MPSoC from scratch. Hardware design: Creating the hardware design from scratch without any help from Vivado example design templates. Software design: Using createdts and Common Image to quick start. Verification: Vector Addition and Vitis-AI.
:doc:`Custom Kria SOM Platform Creation Example <./docs/Design_Tutorials/01-Edge-KV260/README>`	Zynq UltraScale+ MPSoC	KV260	Flat	Vivado Vitis IDE	Highlights: Kria :term:`SOM` Platform creation and usage flow. Hardware design: Creating from scratch. Software design: Using Common Image and showing device tree binary overlay (:term:`DTBO`) creation flow. Verification: Vector Addition and Kria :term:`SOM` application loading procedure.

Feature Tutorials

.. toctree::
   :maxdepth: 3
   :caption: Feature Tutorials
   :hidden:

   Feature Tutorials <./docs/Feature_Tutorials/Feature_Tutorials>

Tutorial	Device Family	Board	Platform Type	IDE Flow	Design Target
:doc:`Incorporating Stream Interfaces <./docs/Feature_Tutorials/01_platform_creation_streaming_ip/README>`	Generic, but using Versal AI Core as example	VCK190	Flat	Vivado Vitis IDE	Highlights: Adding custom IP into the platform hardware. Using AXI Stream IP in platform and kernel.
:doc:`PetaLinux Building and System Customization <./docs/Feature_Tutorials/02_petalinux_customization/README>`	Zynq UltraScale+ MPSoC and Versal AI Core	ZCU104 and VCK190	Flat	Vivado Vitis IDE	Highlights: Customize the software components with PetaLinux.
:doc:`Hardware Design Fast Iteration with Vitis Export to Vivado <./docs/Feature_Tutorials/03_Vitis_Export_To_Vivado/README>`	Versal AI Core	VCK190	Block Design Container	Vivado Vitis IDE	Highlights: Skip creating the platform before v++ linking. Using Vivado to do design implementation and timing closure. Fast iteration for hardware design.
:doc:`Hardware Design Validation <./docs/Feature_Tutorials/04_platform_validation/README>`	Versal AI Core	VCK190	Flat & Block Design Container	Vivado Vitis IDE	Highlights: Link kernel with :term:`XSA` directly. Validation against hardware platform interfaces. Validate the hardware design with bare-metal application.

.. glossary::

    XSA
      Vivado exported archive file that contains hardware information required for Vitis and PetaLinux

    DFX
      Dynamic Function eXchange

    SOM
      System-on-Modules

    DTB
      Device Tree Binary

    DTBO
      Device Tree Binary Overlay

More Information

See Vitis Development Environment on xilinx.com.