Digital System Design: From Logic Gates to Processor Architecture

Modern technology relies on complex digital systems, yet the internal logic of how data moves through a processor remains a mystery to many. This course bridges that gap by providing a clear path from simple binary concepts to the architecture of functional microprocessors. You will transition from understanding basic binary logic to grasping the complex organizational structures of modern digital hardware. By focusing on system-level design methodologies rather than just electrical components, you will gain the skills needed to conceptualize and model the hardware that powers our world. What you'll learn: - Understand binary arithmetic, Boolean algebra, and the fundamental logic gates that power digital devices. - Design combinational logic circuits such as adders, multiplexers, and decoders using systematic methodologies. - Apply sequential logic concepts to create memory elements, registers, and finite state machines. - Explore modern processor architecture principles, including RISC-V fundamentals and instruction sets. - Practice hardware modeling concepts used in current industry design workflows. - Build a conceptual model of a functional CPU by integrating control units and arithmetic logic units. The course begins with essential terminology and foundational definitions before progressing through combinational and sequential logic design. You will conclude by exploring how these components integrate into a cohesive processor architecture through detailed written explanations and logic exercises. This course is designed for beginners with no prior experience in electronics or computer engineering. Start your journey into the heart of computer hardware today.