High-Level Synthesis for FPGA, Part 3 - Advanced

Unlock the Power of FPGAs with Advanced High-Level Synthesis (HLS)

This course dives deep into the advanced topics of High-Level Synthesis (HLS) design flow, empowering you to describe, debug, and implement logic circuits on FPGAs using only C/C++. Say goodbye to complex Hardware Description Languages (HDLs) like VHDL or Verilog – HLS offers a revolutionary approach to hardware design.

Why Learn HLS?

• Future-Proof Your Skills: HLS is rapidly becoming the preferred method for hardware design, adopted by industry leaders like Nvidia and Google for their cutting-edge hardware and software platforms.
• Performance & Power Efficiency: Leverage the exceptional performance and low power consumption of FPGAs with a streamlined design process.
• Essential Skill for Engineers: HLS is quickly becoming a must-have skill for both hardware engineers and software engineers looking to harness the power of FPGAs.

What You'll Learn:

• Master the Advanced HLS Design Flow: This course is the first to comprehensively explain advanced HLS design flow topics.
• Hands-on Experience with Xilinx HLS: We utilize the Xilinx HLS software and hardware platforms to demonstrate real-world examples and applications.
• Practical Application: Follow along with numerous examples illustrating key HLS concepts and techniques.
• Reinforce Your Learning: Test your understanding with numerous quizzes and exercises designed to solidify your grasp of the proposed methods.

Course Structure:

This course is the third in a series dedicated to HLS for designing hardware modules and accelerating algorithms on FPGAs. Building upon foundational knowledge, this module focuses on:

• Multi-cycle Design: Learn to design complex circuits with multiple clock cycles.
• Advanced Design Techniques: Explore sophisticated HLS techniques for optimal hardware implementation.
• Optimization Strategies: Discover powerful optimization techniques to maximize performance and minimize resource utilization.

Note: Previous courses in the series cover single-cycle design techniques for combinational and sequential logic circuits in HLS.