Course Description
Step into the world of modern digital design with one of the most powerful hardware description languages: Verilog. This course takes you on a complete, hands-on journey—starting from the foundations of digital systems all the way to building and simulating real digital circuits using Verilog and ModelSim. Whether you're a beginner, an engineering student, or someone aiming to strengthen their RTL design skills, this course transforms complex concepts into clear, practical, and actionable steps. Through a blend of theory, guided labs, simulations, and real-world assignments, you’ll not only learn Verilog—you’ll use it to design counters, decoders, finite state machines (FSMs), ALUs, and full digital subsystems. By the end of the course, you’ll be confident in writing Verilog code, modeling combinational and sequential logic, performing detailed simulations, and building complete digital projects from scratch.
What you'll learn
By the end of this course, you will be able to:
1. Analyze digital systems and abstraction levels to determine appropriate modeling and design approaches using Verilog.
2. Evaluate number systems, logic structures, and modeling styles to select the most suitable representation for digital design problems.
3. Design combinational and sequential digital circuits using industry-aligned RTL methodologies.
4. Build functional digital modules including decoders, counters, multiplexers, ALUs, and FSMs based on formal specifications.
5. Translate complex digital behaviors into structured Verilog implementations using conditional statements, loops, parameters, and hierarchical design.
6. Develop accurate simulation testbenches using ModelSim for stimulus generation, monitoring, and waveform analysis.
7. Differentiate between dataflow, behavioral, and structural modeling techniques and justify design choices.
8. Verify and debug digital designs using simulation results, timing analysis, waveform inspection, and iterative refinement.
9. Integrate multiple modules into a complete digital subsystem with proper hierarchy and signal management.
10. Apply advanced Verilog features such as tasks, functions, file operations, and memory structures.
11. Evaluate synthesis constraints to ensure Verilog code is efficient, synthesizable, and hardware-accurate.
Requirements
Introduction to Computer Science / Engineering