Designing with the Versal Adaptive SoC: Design Methodology

Level

ACAP 2

What's New for 2024.2

• Revamped the course to be a three-day course with the addition of new content and features
• Added new modules:
  • AI Engine Programming: Kernels and Graphs
  • AI Engine System Partitioning
  • Enabling Top-level RTL Flows
  • Optimizing SLR Crossings in SSI Technology
  • Segmented Configuration
• Added new labs on:
  • Embedded software development
  • AI Engine system partitioning
  • Kernels and graphs
• Introduced the PDI debug utility in the Configuration and Debugging module
• All labs have been updated to the latest software versions

Course Duration

3 days

Audience

Software and hardware developers, system architects, and anyone who wants to learn about the Versal adaptive SoC design methodologies

Prerequisites

• Basic knowledge of AMD FPGAs and adaptive SoCs
• Basic knowledge of the Vivado™ and Vitis™ tools
• Designing with the Versal Adaptive SoC: Architecture

Software Tools

• Vitis Unified IDE 2024.2
• Vivado™ Design Suite 2024.2
• PetaLinux Tools 2024.2

Hardware

• Architecture: All Versal adaptive SoC
• Evaluation board: Versal VCK190 Evaluation Platform

Skills Gained

After completing this comprehensive training, you will have the necessary skills to:

• Describe the embedded software development flow for AMD Versal devices
• Describe the AI Engine development flow
• Use the provided design tools and Versal adaptive SoC design methodologies to create complex systems
• Leverage the Power Design Manager (PDM) tool for power estimation for Versal devicews
• Identify Versal adaptive SoC power and thermal solutions
• Create a custom AMD Vitis platform to run acceleration applications
• Utilize the modular NoC design entry flow for Versal devices
• Identify and apply common timing closure techniques
• Describe the different configuration and debugging options available for the Versal adaptive SoC
• Perform system-level simulation

Course Outline

Day 1

• Embedded Software Development - Describes the software development environments and embedded software development flows for Versal devices. Also introduces embedded software debugging. {Lecture, Lab}
• Software Build Flow - Provides an overview of the different build flows, such as the doit-yourself, Yocto Project, and PetaLinux tool flows. {Lecture, Lab}
• Software Stack - Reviews the Versal device bare-metal, FreeRTOS, and Linux software stack and their components. {Lecture}
• AI Engine Programming: Kernels and Graphs - Investigates AI Engine kernels and Adaptive Data Flow (ADF) graphs along with their programming flows. {Lecture, Lab}
• System Design Planning Methodology - Describes system design planning, power, and thermal guidelines. Also reviews system debug, verification, and validation planning. {Lecture}
• AI Engine System Partitioning - Describes the AI Engine system partitioning and planning methodology and mapping system requirements. {Lecture, Lab}

Day 2

• Power Design Manager - Discusses using the new Power Design Manager tool, including import and export functions. {Lecture, Lab}
• Power and Thermal Solutions - Discusses the power domains in the Versal adaptive SoC as well as power optimization and analysis techniques. Thermal design challenges are also covered. {Lecture}
• Hardware, IP, and Platform Development Methodology - Describes the different Versal device design flows and covers the custom platform creation process using the Vivado IP integrator, RTL, HLS, and Vitis environment. {Lecture, Lab}
• Enabling Top-level RTL Flows - Discusses two RTL-centric flows, one for accessing NoC from RTL known as modular NoC flow, and another for GTs with a new GT Wizard Subsystem flow. {Lecture}
• Timing Closure Overview - Describes the timing closure and baselining of a design. Also explains QoR reports and timing violation analysis. {Lecture}
• Timing Closure Techniques - Reviews the Advanced Flow for implementing Versal devices. Also covers common timing closure techniques for logic optimization, design analysis, and timing closure. {Lecture}
• Optimizing SLR Crossings in SSI Technology - Describes optimizing timing and designs in Versal SSIT devices through efficient SLR crossings and constraints. {Lecture}

Day 3

• Board System Design Methodology - Highlights PCB, power, clocking, and I/O considerations when designing a system. {Lecture}
• Security Management and Safety Features - Describes the security management and safety features of the Versal devices. {Lecture}
• System Integration and Validation Methodology - Outlines different simulation flows as well as timing and power closure techniques. Also explains how to improve system performance. {Lecture}
• Configuration and Debugging - Describes the configuration and debug process for the Versal devices, including the Versal device debug interfaces, such as the test access port (TAP) and debug access port (DAP) controller. Also introduces the new PDI debug utility for decoding and analyzing boot configuration errors. {Lecture}
• Segmented Configuration - Discusses the concept, benefits, and implementation of segmented configuration. {Lecture}
• Overview of HSDP - Describes the high-speed debug port (HSDP) in the Versal device. Also goes over the steps to use the SmartLynq+ module for high-speed debugging. {Lecture, Lab}
• Fabric Debug - Explains the fabric debug features available in the Versal devices and reviews the different supported debug IP cores, such as the AXI Debug Hub, AXIS ILA, and AXIS VIO. {Lecture, Lab}
• System Simulation - Demonstrates how to perform system-level simulation in a Versal device design. {Lecture, Lab}