Hands-On ZYNQ: Mastering AXI4 Bus Protocol
Create Verilog and C codes for implementing the AXI4 bus protocol on ZYNQ FPGA

What you will learn
Use Xilinx AXI4-based IP Cores
Create your own AXI4-based IP Cores from scratch
Create an AXI4-based Hardware Accelerator IP Core (GCD case study)
Create an AXI4-based Transceiver IP Core (UART case study)
Why take this course?
π Course Title: Hands-On ZYNQ: Mastering AXI4 Bus Protocol
Course Headline:
Unlock the full potential of the Xilinx ZYNQ SoC by mastering the AXI4 bus protocol with Verilog and C. This comprehensive course is a cost-effective alternative to official Xilinx training, offering in-depth knowledge at a fraction of the price! π
Course Description:
Important Note: Enroll now to avail this opportunity at a significant discount compared to official Xilinx Training Courses, which typically range from 600 USD to 4000 USD. This course not only covers the Zynq Processing System (PS) and Programmable Logic (FPGA) but also delves into their integration.
- Last Updated: 20 Apr 2019 - Future additions like the GCD accelerator and UART sections are planned, after which the course price will be adjusted.
- Update 1: 22 Apr 2019 - English Subtitles/CCs have been enabled for this course.
- Update 2: 02 Jan 2020 - A bonus lecture has been added to the course content.
What is AXI?
AXI (Advanced eXtensible Interface) is a system bus interface standard used in System-on-Chip (SoC) designs, especially with ARM Cortex-A processors found in chips like Qualcomm Snapdragon, Samsung Exynos, Broadcom (used on Raspberry Pi), and more. AXI4, the current version, is crucial for high-performance applications requiring efficient data transfer between the CPU and peripherals.
What is ZYNQ?
ZYNQ is a groundbreaking System-on-Chip (SoC) that integrates both ARM Cortex-A9 CPUs and FPGAs into a single chip, offering unparalleled flexibility and performance. The ARM Cortex-A9 acts as the soft processor in the SoC, while the FPGA provides custom hardware acceleration capabilities. With the ability to run Linux OS, ZYNQ devices like the Xilinx Zynq-7000 series are comparable to popular platforms such as the Raspberry Pi, yet with a powerful edge for complex computations and real-time processing.
Course Features:
- Hands-On Laboratory: This course is packed with practical examples and laboratory sessions that solidify your understanding of the AXI4 bus protocol.
- Sample Codes: For every project, you'll receive sample codes to guide you through the implementation process.
- Certificate of Completion: Upon finishing the course, you will be awarded a certificate to showcase your new skills and knowledge.
- 30-Day Money-Back Guarantee: Udemy stands behind this course with a 30-day money-back guarantee if you're not satisfied with your learning experience.
What You Will Learn:
- The fundamentals of AXI4 and its application in modern SoCs.
- How to implement AXI4 protocol using Verilog and C within the ZYNQ platform.
- The architecture and features of ZYNQ SoCs, including both the ARM Cortex-A9 CPU and the Xilinx FPGA.
- Practical skills to design and develop your own applications with AXI4 on ZYNQ.
Who is this course for?
This course is ideal for:
- Engineers looking to deepen their understanding of SoC architectures, particularly those involving ARM Cortex-A processors and FPGAs.
- Developers aiming to implement high-performance hardware accelerators on ZYNQ devices.
- Students and hobbyists interested in the intersection of software and hardware design.
Enroll Now and Dive into the World of ZYNQ and AXI4! πβ¨
Click the "Enroll Now" button to start your journey towards mastering the AXI4 bus protocol on Xilinx ZYNQ SoCs using Verilog and C. See you inside the course, where practical knowledge meets real-world application!
Our review
π©βπ« Course Overview:
The course provides a comprehensive introduction to the AXI protocol, with a focus on the AXI-Bus and its implementation using Xilinx Zynq FPGAs. It includes detailed slides, examples for design, simulation, and debugging using the XSCT tool. The instructor aims to cover various aspects of the AXI protocol, including its use in AXI-non-Lite, AXI4, and AXI-Stream interfaces.
Pros:
- Detailed Content: The course offers a wealth of information with lots of examples that are very helpful for learners. The detailed slides serve as an excellent resource for understanding complex topics.
- Real-world Application: The inclusion of a small project for AXI-non-Lite and the practical application in design, simulation, and debugging enhance the learning experience.
- Flexibility Suggestion: The suggestion for the course to include both VHDL and Verilog code versions is indicative of learners' diverse preferences and needs.
- Course Value: The course is deemed very detailed and worth the investment, as reported by several users.
- Instructor's Expertise: Despite some challenges with accent and presentation, the instructor appears to have a good understanding of the AXI interface.
- Community Feedback: The course has prompted valuable feedback from learners which can lead to improvements in future iterations.
- Closed Captions: The issue with the instructor's English was addressed with closed captions, which were appreciated by the learners.
Cons:
- Pronunciation and Accent: Some users found it difficult to understand the instructor's accent, which could pose a barrier to learning.
- Code Examples: The practice of providing complete code blocks without detailed explanations may be challenging for beginners. Some users suggested that breaking down the code into smaller parts with more explanation would be beneficial.
- Version Outdated: The version of Vivado and the development board (Zybo) used are outdated, which could lead to some examples not aligning with current tools and practices.
- Course Structure: The transition from easier examples of Xilinx IP cores to more complex AXI4 and AXI-Stream applications was perceived as abrupt, with a preference for a step-by-step guide rather than direct copy-paste of Verilog and C code.
- Simulation Visualization: The waveform visualization in simulations could be improved by using different colors for signals to make the presentation clearer.
- Wrapper Usage: Expectation for more content on using Xilinx Wrappers for AXI bus implementation, as opposed to handcoding, indicates a demand for a different approach to interfacing with the AXI-Bus.
Recommendations for Improvement:
- Update Software Versions: Ensure that the software tools and development boards used are up-to-date with the latest versions.
- Improve Code Explanation: Provide more detailed explanations alongside code examples to cater to beginners.
- Enhance Visualization: Utilize different colors for signals in simulations to aid in clearer understanding.
- Incremental Complexity: Introduce complex topics like AXI4 and AXI-Stream in a more incremental manner, with simpler examples leading up to these advanced topics.
- Expand on Wrappers: Include content on using Xilinx Wrappers for interfacing with the AXI-Bus to complement the existing content.
- Closed Captioning: Continue to provide accurate closed captions or improve voice clarity for non-native English speakers.
Final Thoughts: The course offers valuable knowledge and resources for those interested in mastering the AXI protocol with Xilinx Zynq FPGAs. With some improvements, particularly in software updates and presentation clarity, it has the potential to be an even more effective learning tool. The feedback from learners will undoubtedly guide future enhancements to this course.