Learn VHDL Design using Xilinx Zynq-7000 ARM/FPGA SoC

Master Digital System Design with VHDL: FPGA, ASIC & VLSI

Unlock the power of hardware design with this comprehensive course focused on VHDL, a leading hardware description language. Learn to design and simulate digital systems for FPGA, ASIC, and VLSI applications. This hands-on course provides practical experience using a Xilinx FPGA Development Board and simulation software.

What you'll learn:

• VHDL Fundamentals: Grasp the core concepts of VHDL, including syntax and semantics.
• VHDL Design Techniques: Master techniques for logic synthesis, component modeling, and data flow description. Understand behavioral description of hardware.
• Design Flow & Methodology: Navigate the complete VHDL design flow from concept to implementation.
• Testbench Development: Create effective testbenches in VHDL to ensure design functionality.
• Finite State Machine Design: Learn to design complex systems using finite state machines.
• Two-Process Design Methodology: Implement robust and efficient designs using the industry-standard two-process methodology.
• Combinational & Sequential Logic: Develop a strong understanding of combinational and sequential logic design principles.
• Reusable Designs: Create extensible synthesizable designs for increased efficiency and reusability.

Hands-on Experience:

• Utilize the Digilent Zybo Z7: Zynq-7000 ARM/FPGA SoC Development Board for practical application.
• Leverage the Xilinx Vivado toolset for design and simulation.

Who is this course for?

This course is ideal for individuals with a foundation in digital logic design, electrical engineering, or related fields. Whether you are a VHDL beginner or have existing experience and want to expand your skillset, this course offers valuable insights. Specifically, this course will benefit those who want to learn or improve their skills in:

• Using attributes beyond 'event'
• Employing variables effectively
• Optimizing process usage for concurrency
• Utilizing assert and report statements
• Working with unconstrained vectors and arrays
• Implementing passive processes within entities
• Leveraging the real and math_real library packages in synthesizable code
• Streamlining designs with single processes per signal assignment.

Prerequisites: Familiarity with digital logic design, electrical engineering, or equivalent experience.